mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator and/or freezer , comprising: a cabinet for receiving a chilled item whose temperature is to be controlled, and a channel for collecting and removing condensation, wherein the channel extends along a side wall of the cabinet of the refrigerator and/or freezer, wherein the channel comprises a depression with respect to the level defined by the side wall, wherein the channel is arranged underneath an evaporation surface, wherein the surface portions of the side wall that are separated by the channel are flush with each other, wherein the depression in the side wall has a geometry which, when the side wall is oriented vertically, directs water flowing from above towards the depression into the channel and wherein the convex portion of the channel which in this orientation can fill with water is connected to a feed section which comprises the depression in the side wall, characterised in that the channel extends around the interior of the refrigerator and/or freezer, wherein the geometry of the depression is chosen such that the surface tension of the water is sufficient to direct overhanging water into the convex portion of the channel. a cabinet for receiving a chilled item whose temperature is to be controlled, and a channel for collecting and removing condensation, wherein the channel extends along a side wall of the cabinet of the refrigerator and/or freezer, wherein the channel comprises a depression with respect to the level defined by the side wall, wherein the channel is arranged underneath an evaporation surface, wherein the surface portions of the side wall that are separated by the channel are flush with each other, wherein the depression in the side wall has a geometry which, when the side wall is oriented vertically, directs water flowing from above towards the depression into the channel and wherein the convex portion of the channel which in this orientation can fill with water is connected to a feed section which comprises the depression in the side wall, characterised in that the channel extends around the interior of the refrigerator and/or freezer, wherein the geometry of the depression is chosen such that the surface tension of the water is sufficient to direct overhanging water into the convex portion of the channel.
System for applying a building material, the system comprising: a movement apparatus for changing an application site in a space; a first component of the building material; a second component of the building material; a mixer for mixing the first component and the second component ; wherein the mixer comprises a drive module , which has a first coupling element , and a mixing chamber module , which has a second coupling element , wherein the drive module and the mixing chamber module are designed as separable from one another by way of the coupling elements , and wherein the drive module and the mixing chamber module , in an application state of the system , are operatively interconnected by the coupling elements and wherein the mixing chamber module comprises a drum module and a shaft module , which are designed as separable from one another and the drum module comprises a drum , which has at least one inlet (7, 7.1, 7.2, 7.3) and an outlet , and a distal closure and the drum comprises at least a first inlet (7.1) and a second inlet (7.2) in a first end region of the drum and wherein the outlet is located in a second end region of the drum and wherein the shaft module comprises the second coupling element , the proximal closure and a stirring shaft , wherein the stirring shaft is operatively connected to the second coupling element and wherein the drive module comprises a support device , which in the application state is connected to the distal closure , and wherein the distal closure has at least one bearing for the stirring shaft . a movement apparatus for changing an application site in a space; a first component of the building material; a second component of the building material; a mixer for mixing the first component and the second component ; wherein the mixer comprises a drive module , which has a first coupling element , and a mixing chamber module , which has a second coupling element , wherein the drive module and the mixing chamber module are designed as separable from one another by way of the coupling elements , and wherein the drive module and the mixing chamber module , in an application state of the system , are operatively interconnected by the coupling elements and wherein the mixing chamber module comprises a drum module and a shaft module , which are designed as separable from one another and the drum module comprises a drum , which has at least one inlet (7, 7.1, 7.2, 7.3) and an outlet , and a distal closure and the drum comprises at least a first inlet (7.1) and a second inlet (7.2) in a first end region of the drum and wherein the outlet is located in a second end region of the drum and wherein the shaft module comprises the second coupling element , the proximal closure and a stirring shaft , wherein the stirring shaft is operatively connected to the second coupling element and wherein the drive module comprises a support device , which in the application state is connected to the distal closure , and wherein the distal closure has at least one bearing for the stirring shaft .
An access method, comprising: determining, by a terminal device at a current moment, that a preset condition for a link exception in a currently used beam is met, and determining that the current moment is within a preconfigured time window; selecting , by the terminal device, one access resource from at least two preconfigured access resources as a target access resource, wherein the at least two access resources are valid for the terminal device in the time window, each of the at least two access resources comprises a time-frequency resource and a sequence corresponding to the time-frequency resource, and Radio Resource Control RRC context information of the terminal device is stored in a base station in the time window; and sending , by the terminal device, in the time window an access signal to the base station by using the time-frequency resource in the target access resource, wherein the access signal is determined based on a sequence in the target access resource. determining, by a terminal device at a current moment, that a preset condition for a link exception in a currently used beam is met, and determining that the current moment is within a preconfigured time window; selecting , by the terminal device, one access resource from at least two preconfigured access resources as a target access resource, wherein the at least two access resources are valid for the terminal device in the time window, each of the at least two access resources comprises a time-frequency resource and a sequence corresponding to the time-frequency resource, and Radio Resource Control RRC context information of the terminal device is stored in a base station in the time window; and sending , by the terminal device, in the time window an access signal to the base station by using the time-frequency resource in the target access resource, wherein the access signal is determined based on a sequence in the target access resource.
Electrically insulating touch protection device for an end of an electrical conductor with an insulating tube made of expandable material and with a housing which is configured to receive said end of said electrical conductor , wherein said housing comprises an end section , which points towards said insulating tube in longitudinal direction, with a first segment and a second segment , wherein said first segment is inserted into said insulating tube in the longitudinal direction and said second segment is placed onto said insulating tube , wherein said insulating tube is stretched at least in part over said first segment of said end section .
A controller component comprising: a resistance-based bridge circuit ; characterized by a signal conditioning circuit configured to condition an output of the resistance-based bridge circuit ; a first diagnostic circuit coupled to the signal conditioning circuit configured to monitor an output of a first branch of the resistance-based bridge circuit ; and a second diagnostic circuit coupled to the signal conditioning circuit configured to monitor an output of a second branch of the resistance-based bridge circuit . a resistance-based bridge circuit ; characterized by a signal conditioning circuit configured to condition an output of the resistance-based bridge circuit ; a first diagnostic circuit coupled to the signal conditioning circuit configured to monitor an output of a first branch of the resistance-based bridge circuit ; and a second diagnostic circuit coupled to the signal conditioning circuit configured to monitor an output of a second branch of the resistance-based bridge circuit .
An antireflection member comprising a low refractive index layer on a transparent substrate , wherein the low refractive index layer comprises a binder resin and silica particles , characterized in that a ratio of Si element attributed to the silica particles , obtained by analysis of a surface region of the low refractive index layer by X-ray photoelectron spectroscopy, is 10.0 atomic percent or more and 18.0 atomic percent or less and a ratio of C element under the assumption that the ratio of Si element is defined to be 100 atomic percent is 180 atomic percent or more and 400 atomic percent or less. the low refractive index layer comprises a binder resin and silica particles , characterized in that a ratio of Si element attributed to the silica particles , obtained by analysis of a surface region of the low refractive index layer by X-ray photoelectron spectroscopy, is 10.0 atomic percent or more and 18.0 atomic percent or less and a ratio of C element under the assumption that the ratio of Si element is defined to be 100 atomic percent is 180 atomic percent or more and 400 atomic percent or less.
A horological gearing (E1; E2; E3) comprising a first toothed wheel (R1; R1'; R1") mobile in rotation about a first axis (A1) and including first symmetrical teeth (d1) and a second toothed wheel (R2; R2'; R2") mobile in rotation about a second axis (A2) and including second symmetrical teeth (d2), the first and second axis being parallel or substantially parallel, each of the first and second teeth being conformed so that the primitive backlash ( J ) of the gearing is less than 0.3 · m, or even less than 0.25 · m, or even less than 0.2 · m , or even less than 0.15 · m , or even less than 0.1 · m , or even less than 0.08 · m for the nominal axial center distance ( e ) of the gearing, where m is the modulus of the wheel of which the tooth forms part.
Separator for separating a first phase in the form of blood serum (S), from a second phase in the form of clotted blood (K), in the case of blood as fluid, under centrifugal force in a tube-shaped container ; comprising a floating element made of an elastic material, with, when viewed from above, a circumferential sealing edge for application in a sealing manner on the inner side of the tube-shaped container in a sealing position ; and at least one ballast element fastened on the underside of the floating element ; wherein the density of the material of the ballast element is greater than the density of the material of the floating element ; wherein the density of the separator is within a value range between the density of the first phase and the density of the second phase of the fluid, for which reason the centre of gravity of the separator lies precisely on the phase boundary between the first and the second phase of the fluid; wherein the sealing edge of the floating element is located at a distance (d) above the centre of gravity (SG) of the separator ; and wherein the sealing edge - seen from the side - is configured to extend horizontally in the circumferential direction (R), or wherein the sealing edge - seen from the side - is configured to extend in the circumferential direction (R) in an undulating manner forming wave peaks and wave troughs ; and, in this case, the distance (d) is measured from the lowest wave trough to the centre of gravity (SG) of the entire separator ; characterised in that the distance (d) is within a range of 0.05 mm to 4 mm. a floating element made of an elastic material, with, when viewed from above, a circumferential sealing edge for application in a sealing manner on the inner side of the tube-shaped container in a sealing position ; and at least one ballast element fastened on the underside of the floating element ; wherein the density of the material of the ballast element is greater than the density of the material of the floating element ; wherein the density of the separator is within a value range between the density of the first phase and the density of the second phase of the fluid, for which reason the centre of gravity of the separator lies precisely on the phase boundary between the first and the second phase of the fluid; wherein the sealing edge of the floating element is located at a distance (d) above the centre of gravity (SG) of the separator ; and wherein the sealing edge - seen from the side - is configured to extend horizontally in the circumferential direction (R), or wherein the sealing edge - seen from the side - is configured to extend in the circumferential direction (R) in an undulating manner forming wave peaks and wave troughs ; and, in this case, the distance (d) is measured from the lowest wave trough to the centre of gravity (SG) of the entire separator ; characterised in that the distance (d) is within a range of 0.05 mm to 4 mm.
A urinary catheter comprising a tubular shaft extending between an insertion end and a discharge end , wherein the insertion end has a closed forward end and wherein the tubular shaft has a single internal lumen, the tubular shaft being formed of at least two materials having different properties, each of said materials being arranged separated from each other in distinct zones (ZS, ZH), at least one of said distinct zones extending over essentially the entire length of the tubular shaft, wherein at least one of the width and thickness of said zones (ZS, ZH) varies over the length of the tubular shaft, to form two or more uniform sections (S, H; H1, H2, S1, S2) of the tubular shaft having various relative amounts of said materials, and wherein at least one transition between two such uniform sections (S, H; H1, H2, S1, S2) is formed by a transition section (T; T1-T3) providing a gradual transition between said uniform sections (S, H; H1, H2, S1, S2), and wherein the tubular shaft has an essentially constant outer diameter along substantially the entire length of the tubular shaft and essentially constant inner diameter along the entire internal lumen, wherein the catheter tube comprises a circular wall surrounding the internal lumen, and wherein the circular wall has a uniform and constant wall thickness around the circumference and over substantially the entire length of the tubular shaft; wherein the tubular shaft comprises a uniform section (S1) being closest to the insertion end which is softer than another uniform section (H1) being farther away from the insertion end, and an additional softer uniform section (S2) is arranged in the vicinity of the middle of the catheter shaft , said another uniform section (H1) arranged between the uniform section (S1) closest to the insertion end and the additional softer uniform section (S2), wherein each transition section (T; T1-T3) has an extension within the range of 2-30% of the total length of the tubular shaft , wherein the two or more uniform sections (S, H; H1, H2, S1, S2) in total extend over at least 50% of the total length of the tubular shaft.
A biaxially oriented polypropylene film comprising a polypropylene resin as a main component, the biaxially oriented polypropylene film having an arithmetic average roughness SRa on at least one surface of 0.03 μm to 0.10 μm, a maximum profile valley depth SRv on at least one surface of 0.10 μm to 0.50 μm, wherein the SRa and SRv are measured in accordance with JIS B-0601 edition 1982, and being characterized by a profile valley side void volume having a depth of 0.05 μm or more existing in a visual field area in a range of 1,252 μm × 939 μm on at least one surface measured by non-contact surface shape measurement of 100 μm 3 to 10,000 μm 3 , wherein the profile valley side void volume is measured according to the method given in the description.
A variable performance electric generator , comprising, a rotor arranged along a centerline of the generator ; a core arranged coaxially and surrounding the rotor ; a plurality of stator windings arranged within the core ; a stator frame arranged to fixedly support the core and rotationally support the rotor ; a gas cooling system configured to circulate a non-explosive cooling gas within the generator ; a liquid cooling system configured to circulate a cooling liquid to cool the stator windings wherein the cooling ability of the liquid cooling system is a function of a required generator parameter; a pressurizing system that operatively pressurizes the cooling gas to a maximum pressure of 200 kPa relative to atmospheric pressure, wherein the pressurizing system continuously determines the cooling gas pressure based upon a required generator parameter; and characterized by a control system that controls the cooling ability of the liquid cooling system in conjunction with the cooling gas pressure; wherein the control system is configured to sense a generator output signal of the generator , to compare the sensed generator output signal to a load demand of the generator and to determine an optimum operating pressure of the cooling gas based on a predetermined control scheme; wherein the pressurizing system is configured to adjust an operating pressure of the cooling gas in accordance with the determined optimum operating pressure; and wherein the control system is configured to control the liquid cooling system and the pressurization system to maximize generator efficiency. a rotor arranged along a centerline of the generator ; a core arranged coaxially and surrounding the rotor ; a plurality of stator windings arranged within the core ; a stator frame arranged to fixedly support the core and rotationally support the rotor ; a gas cooling system configured to circulate a non-explosive cooling gas within the generator ; a liquid cooling system configured to circulate a cooling liquid to cool the stator windings wherein the cooling ability of the liquid cooling system is a function of a required generator parameter; a pressurizing system that operatively pressurizes the cooling gas to a maximum pressure of 200 kPa relative to atmospheric pressure, wherein the pressurizing system continuously determines the cooling gas pressure based upon a required generator parameter; and characterized by a control system that controls the cooling ability of the liquid cooling system in conjunction with the cooling gas pressure; wherein the control system is configured to sense a generator output signal of the generator , to compare the sensed generator output signal to a load demand of the generator and to determine an optimum operating pressure of the cooling gas based on a predetermined control scheme; wherein the pressurizing system is configured to adjust an operating pressure of the cooling gas in accordance with the determined optimum operating pressure; and wherein the control system is configured to control the liquid cooling system and the pressurization system to maximize generator efficiency.
A weatherproof electrical interconnect comprising male plug and female socket members , wherein the female socket member is fixedly secured to a vehicle or structure and includes outwardly projecting electrical prongs located internally of the female socket member , and a transportable male plug member , including receiving slots to accommodate the prongs , the interconnect further including gasket members which engage when the interconnect is in a closed position preventing influx of any liquid, the female socket member further comprises a hinged cover member which is interlockable in a detent which is provided on the male plug , to lock the male member to the female member to prevent unintentional disengagement characterised in that a nose member of the male plug is insertable into a non-circular and irregularly configured opening of the female socket member, in that the nose member of the male plug and the opening of the female socket member are non-cylindrical to prevent an unaligned connection, and in that the male plug and female socket member further include opposing latching members and opposing slots for preventing unintentional disengagement.
An assembly for performing start-up testing on a fluid flow control device having a valve body defining an inlet, an outlet, and a fluid flow path extending between the inlet and the outlet, and a valve seat disposed within the valve body and defining an orifice through which the fluid flow path passes, the assembly comprising: a retainer adapted to be disposed in the valve body; and a sealing assembly coupled to a portion of the retainer and adapted to be disposed adjacent the valve seat, characterized in that the sealing assembly is threaded to the retainer proximate to an end of the retainer, and in that the sealing assembly comprises a first sealing element , a second sealing element , and a spacer disposed between the first and second sealing elements such that the sealing assembly is configured to provide a seal during start-up testing at all service temperatures between approximately -198 degrees Celsius (-325 degrees Fahrenheit) and approximately 677 degrees Celsius (1250 degrees Fahrenheit), wherein the first sealing element comprises a first C-seal and the second sealing element comprises a second C-seal and wherein the first C-seal and the second C-seal are each made of a corrosion-resistant metal. a retainer adapted to be disposed in the valve body; and a sealing assembly coupled to a portion of the retainer and adapted to be disposed adjacent the valve seat, characterized in that the sealing assembly is threaded to the retainer proximate to an end of the retainer, and in that the sealing assembly comprises a first sealing element , a second sealing element , and a spacer disposed between the first and second sealing elements such that the sealing assembly is configured to provide a seal during start-up testing at all service temperatures between approximately -198 degrees Celsius (-325 degrees Fahrenheit) and approximately 677 degrees Celsius (1250 degrees Fahrenheit), wherein the first sealing element comprises a first C-seal and the second sealing element comprises a second C-seal and wherein the first C-seal and the second C-seal are each made of a corrosion-resistant metal.