mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid separator comprising a vessel with an inlet for a liquid/gas mixture, whereby this vessel defines a space which at the top is closed by means of a cover , whereby the liquid separator is fitted with an outlet for treated gas, whereby in the aforementioned space a shield is provided that extends around the aforementioned outlet and which comprises a bottom wall with one or more inlet openings , whereby a chamber is defined by the shield , the bottom wall and the cover , whereby in the thus formed chamber at least one removable filter element is provided that extends from the bottom wall around the inlet opening , such that between the shield and the removable filter element an outlet zone is defined which is in connection with the aforementioned outlet , characterised in that in the aforementioned cover a corresponding small removable cover is provided above each removable filter element such that each removable filter element can be taken out and/or replaced upon removal of the corresponding small removable cover ; and that the removable filter element is fitted with a cap or cover element at the top, whereby on this cap or cover element an elevation is provided, whereby in the elevation a cut-away is provided that can co-operate with a tool that is fitted with a detailing with a form that is complementary to the cut-away , whereby the elevation is formed by a U-shaped profile with a bottom and two upright arms , which is attached to the cap with the free ends of the upright arms , whereby the cut-away in the bottom is made in the form of arcs , whereby the arcs have the same centre.
A method for buffer status reporting, the method comprising: triggering , by a terminal, reporting of a padding buffer status report, padding BSR; determining , by the terminal, a BSR format for BSR-to-be-reported according to a number of padding bits, a size of a first type of BSR format plus its media access control, MAC, subheader, and a quantity of logical channel groups having data to-be-transmitted, wherein a quantity of logical channel groups corresponding to the BSR format is greater than or equal to 1; characterized in that , determining , by the terminal, the BSR format for BSR-to-be-reported according to the number of padding bits, the size of a first type of BSR format plus its MAC subheader, and the quantity of logical channel groups having data to-be-transmitted comprises: determining, when the number of the padding bits is greater than the size of the first type of BSR format plus its MAC subheader, and is less than a size of a maximum length of a second type of BSR format plus its MAC subheader, and the quantity of logical channel groups having data to-be-transmitted is one, to report the first type of BSR format; wherein the first type of BSR format is a short BSR format, the second type of BSR format is a flexible long BSR format, and the first type of BSR format is different from the second type of BSR format. triggering , by a terminal, reporting of a padding buffer status report, padding BSR; determining , by the terminal, a BSR format for BSR-to-be-reported according to a number of padding bits, a size of a first type of BSR format plus its media access control, MAC, subheader, and a quantity of logical channel groups having data to-be-transmitted, wherein a quantity of logical channel groups corresponding to the BSR format is greater than or equal to 1; characterized in that , determining , by the terminal, the BSR format for BSR-to-be-reported according to the number of padding bits, the size of a first type of BSR format plus its MAC subheader, and the quantity of logical channel groups having data to-be-transmitted comprises: determining, when the number of the padding bits is greater than the size of the first type of BSR format plus its MAC subheader, and is less than a size of a maximum length of a second type of BSR format plus its MAC subheader, and the quantity of logical channel groups having data to-be-transmitted is one, to report the first type of BSR format; wherein the first type of BSR format is a short BSR format, the second type of BSR format is a flexible long BSR format, and the first type of BSR format is different from the second type of BSR format. determining, when the number of the padding bits is greater than the size of the first type of BSR format plus its MAC subheader, and is less than a size of a maximum length of a second type of BSR format plus its MAC subheader, and the quantity of logical channel groups having data to-be-transmitted is one, to report the first type of BSR format; wherein the first type of BSR format is a short BSR format, the second type of BSR format is a flexible long BSR format, and the first type of BSR format is different from the second type of BSR format.
A spread spectrum communication device , comprising: a memory that stores transmission data; a microprocessor that calculates a spread spectrum signal (SS) on the basis of the transmission data and that switches an input/output port on and off on the basis of the calculation result; an antenna that is connected to the input/output port via a coupling circuit ; and an oscillation circuit that is connected to the coupling circuit and generates a carrier wave (LO),; wherein as a result of the microprocessor switching on and off the input/output port on the basis of the calculation result of the spread spectrum signal, the input/output port is switched between shorted and open and a terminal phase of the antenna is inverted by 180°, wherein the coupling circuit subjects the carrier wave (LO) to BPSK modulation on the basis of the spread spectrum signal (SS), and a transmission signal generated by the carrier wave (LO) being subjected to BPSK modulation on the basis of the spread spectrum signal (SS) is transmitted from the antenna . a memory that stores transmission data; a microprocessor that calculates a spread spectrum signal (SS) on the basis of the transmission data and that switches an input/output port on and off on the basis of the calculation result; an antenna that is connected to the input/output port via a coupling circuit ; and an oscillation circuit that is connected to the coupling circuit and generates a carrier wave (LO),; wherein as a result of the microprocessor switching on and off the input/output port on the basis of the calculation result of the spread spectrum signal, the input/output port is switched between shorted and open and a terminal phase of the antenna is inverted by 180°, wherein the coupling circuit subjects the carrier wave (LO) to BPSK modulation on the basis of the spread spectrum signal (SS), and a transmission signal generated by the carrier wave (LO) being subjected to BPSK modulation on the basis of the spread spectrum signal (SS) is transmitted from the antenna .
A method of producing a heat-resistant silane crosslinked resin molded body, comprising: (a) a step of preparing a silane master batch by melt-kneading, to 100 parts by mass of a base resin (R B ) containing a non-aromatic organic oil, a styrene-based elastomer, and ethylene rubber composed of a copolymer of ethylene and α-olefin or a terpolymer of ethylene, α-olefin and diene; an organic peroxide of from 0.01 to 0.6 parts by mass, an inorganic filler of from 10 to 400 parts by mass, and a silane coupling agent of from 1 to 15.0 parts by mass, at a temperature equal to or higher than the decomposition temperature of the organic peroxide, (b) a step of obtaining a mixture by mixing the silane master batch and a silanol condensation catalyst, (c) a step of obtaining a molded body by molding the mixture, and (d) a step of obtaining a heat-resistant silane crosslinked resin molded body by contacting the molded body with water. (a) a step of preparing a silane master batch by melt-kneading, to 100 parts by mass of a base resin (R B ) containing a non-aromatic organic oil, a styrene-based elastomer, and ethylene rubber composed of a copolymer of ethylene and α-olefin or a terpolymer of ethylene, α-olefin and diene; an organic peroxide of from 0.01 to 0.6 parts by mass, an inorganic filler of from 10 to 400 parts by mass, and a silane coupling agent of from 1 to 15.0 parts by mass, at a temperature equal to or higher than the decomposition temperature of the organic peroxide, (b) a step of obtaining a mixture by mixing the silane master batch and a silanol condensation catalyst, (c) a step of obtaining a molded body by molding the mixture, and (d) a step of obtaining a heat-resistant silane crosslinked resin molded body by contacting the molded body with water.
Apparatus for opening a door or panel on a motor vehicle , comprising a handle that can be gripped by an operator from outside the motor vehicle , and a motor vehicle locking device , an operating means for operating the locking device by means of the handle being arranged between the handle and the motor vehicle locking device , the operating means being a cable , and one end of the handle being mounted and the opposite end being accommodated by a guide for the handle in a guided manner, characterized in that the guide has a stop so that movement (H1, H2) of the handle can be delimited, it being possible to move the handle beyond the stop out of the frictional and/or form-fitting guide by means of an excessive force (F2).
A mounting structure comprising: a first substrate in which a penetrating hole is formed; a second substrate and a first heat dissipation element overlapped with both surfaces of the first substrate , respectively, so as to cover the penetrating hole ; and a second heat dissipation element sandwiched and attached between the second substrate and the first heat dissipation element inside the penetrating hole , characterized in that the second heat dissipation element is a metal spring having elasticity in the substrate thickness direction. a first substrate in which a penetrating hole is formed; a second substrate and a first heat dissipation element overlapped with both surfaces of the first substrate , respectively, so as to cover the penetrating hole ; and a second heat dissipation element sandwiched and attached between the second substrate and the first heat dissipation element inside the penetrating hole , characterized in that the second heat dissipation element is a metal spring having elasticity in the substrate thickness direction.
A gas turbine engine , comprising: a conically shaped fan hub , the outer surface of the hub having at least two different Gaussian curvatures; a plurality of attachment features located on the outer surface of the hub , wherein at least some of the plurality of attachment features extend radially away from the outer surface and are axially aligned with each other and at least some of the plurality of attachment features extending radially away from the outer surface and are off set from each other; a plurality of fan blades each having a plurality of connecting members secured to the fan hub via the plurality of attachment features , each of the plurality of attachment features have an opening configured to receive a portion of a pin for securing the plurality of blades to the fan hub; and wherein at least some of the plurality of attachment features are located on a forward leading edge of the hub and extend axially away from the leading edge. a conically shaped fan hub , the outer surface of the hub having at least two different Gaussian curvatures; a plurality of attachment features located on the outer surface of the hub , wherein at least some of the plurality of attachment features extend radially away from the outer surface and are axially aligned with each other and at least some of the plurality of attachment features extending radially away from the outer surface and are off set from each other; a plurality of fan blades each having a plurality of connecting members secured to the fan hub via the plurality of attachment features , each of the plurality of attachment features have an opening configured to receive a portion of a pin for securing the plurality of blades to the fan hub; and wherein at least some of the plurality of attachment features are located on a forward leading edge of the hub and extend axially away from the leading edge.
A Printed circuit board , comprising: an insulating layer; at least one circuit pattern or pad formed on the insulating layer; a solder resist having an opening section exposing an upper surface of a pad and formed on the insulating layer; a bump formed on the pad exposed through the opening section of the solder resist and protruding over an upper surface of the solder resist ; and a plating seed layer formed between a side surface of the solder resist and a side surface of the bump and exposing the upper surface of the pad , wherein the bump has an upper surface and a lower surface facing the upper surface, wherein an area of the upper surface of the bump is same as an area of the lower surface of the bump , wherein the plating seed layer has an upper surface and a lower surface facing the upper surface, wherein the upper surface of the plating seed layer lies in a same plane as the upper surface of the bump . an insulating layer; at least one circuit pattern or pad formed on the insulating layer; a solder resist having an opening section exposing an upper surface of a pad and formed on the insulating layer; a bump formed on the pad exposed through the opening section of the solder resist and protruding over an upper surface of the solder resist ; and a plating seed layer formed between a side surface of the solder resist and a side surface of the bump and exposing the upper surface of the pad , wherein the bump has an upper surface and a lower surface facing the upper surface, wherein an area of the upper surface of the bump is same as an area of the lower surface of the bump , wherein the plating seed layer has an upper surface and a lower surface facing the upper surface, wherein the upper surface of the plating seed layer lies in a same plane as the upper surface of the bump .
A coherency manager for receiving snoop requests addressed in a physical address space, the snoop requests relating to a cache memory addressable using a virtual address space, the cache memory having a plurality of coherent cachelines, the coherency manager comprising: a reverse translation module configured to maintain a mapping from physical addresses to virtual addresses for each coherent cacheline held in the cache memory; and a snoop processor configured to: receive a snoop request relating to a physical address; in response to the received snoop request, determine whether the physical address is mapped to a virtual address in the reverse translation module; and process the snoop request in dependence on that determination wherein the coherency manager is configured, on determining that the reverse translation module does not comprise a mapping from the physical address to a virtual address, to cause a response to the snoop request to be sent without accessing the cache memory. a reverse translation module configured to maintain a mapping from physical addresses to virtual addresses for each coherent cacheline held in the cache memory; and a snoop processor configured to: receive a snoop request relating to a physical address; in response to the received snoop request, determine whether the physical address is mapped to a virtual address in the reverse translation module; and process the snoop request in dependence on that determination wherein the coherency manager is configured, on determining that the reverse translation module does not comprise a mapping from the physical address to a virtual address, to cause a response to the snoop request to be sent without accessing the cache memory. receive a snoop request relating to a physical address; in response to the received snoop request, determine whether the physical address is mapped to a virtual address in the reverse translation module; and process the snoop request in dependence on that determination wherein the coherency manager is configured, on determining that the reverse translation module does not comprise a mapping from the physical address to a virtual address, to cause a response to the snoop request to be sent without accessing the cache memory.
An automatic winder for winding a yarn from a yarn supply bobbin to form a package comprising: a plurality of winder units each having at least a first module and a second module ; and a base member in which the plurality of winder units is arranged, wherein the base member has a first receiving surface that faces upward and supports more than half of the weight of the first module , and a second receiving surface that faces upward and supports more than half of the weight of the second module , the first module is a yarn winding module configured as a yarn winding section for winding the yarn into the package , the second module is a yarn joining module configured as a yarn joining section for joining the yarn, the first module and the second module are mounted to the base member via a different mounting mechanism , respectively. a plurality of winder units each having at least a first module and a second module ; and a base member in which the plurality of winder units is arranged, wherein the base member has a first receiving surface that faces upward and supports more than half of the weight of the first module , and a second receiving surface that faces upward and supports more than half of the weight of the second module , the first module is a yarn winding module configured as a yarn winding section for winding the yarn into the package , the second module is a yarn joining module configured as a yarn joining section for joining the yarn, the first module and the second module are mounted to the base member via a different mounting mechanism , respectively.
A method of operating a heated tobacco device, comprising: selecting a first operational mode or a second operational mode from at least two operational modes; when the first operational mode is selected, supplying power to a heater of the device to increase the temperature of the heater to a first target temperature; providing a first haptic feedback output in response to a current temperature of the heater reaching the first target temperature; when the second operational mode is selected, supplying power to the heater to increase the temperature of the heater to a second, different, target temperature; providing a second, different, haptic feedback output in response to a current temperature of the heater reaching the second target temperature. selecting a first operational mode or a second operational mode from at least two operational modes; when the first operational mode is selected, supplying power to a heater of the device to increase the temperature of the heater to a first target temperature; providing a first haptic feedback output in response to a current temperature of the heater reaching the first target temperature; when the second operational mode is selected, supplying power to the heater to increase the temperature of the heater to a second, different, target temperature; providing a second, different, haptic feedback output in response to a current temperature of the heater reaching the second target temperature.
A method comprising: transferring , by a network access device, NAD, a first hypertext transfer protocol secure, HTTPS, request received over a secure network link from a client computer , to an identity provider computer , wherein the first HTTPS request is addressed to the identity provider computer ; transferring , by the NAD , a preceding redirected uniform resource locator, URL, received from the identity provider computer in response to the first HTTPS request , to the client computer , wherein the preceding redirected URL comprises a host identifier of the identity provider computer and is configured to cause the client computer to redirect to said preceding redirected URL using hypertext transfer protocol, HTTP; intercepting , by the NAD over the secure network link , a particular request specifying said preceding redirected URL from the client computer ; in response to receiving the particular request , the NAD generating a particular response , the particular response comprising a subsequent redirected URL and a session identifier, wherein the subsequent redirected URL is configured to cause the client computer to redirect to the identity provider computer over an HTTPS connection; transferring , by the NAD , said subsequent redirected URL over the secure network link to the client computer ; transferring , by the NAD , a second HTTPS request , comprising the session identifier, from the client computer to the identity provider computer . transferring , by a network access device, NAD, a first hypertext transfer protocol secure, HTTPS, request received over a secure network link from a client computer , to an identity provider computer , wherein the first HTTPS request is addressed to the identity provider computer ; transferring , by the NAD , a preceding redirected uniform resource locator, URL, received from the identity provider computer in response to the first HTTPS request , to the client computer , wherein the preceding redirected URL comprises a host identifier of the identity provider computer and is configured to cause the client computer to redirect to said preceding redirected URL using hypertext transfer protocol, HTTP; intercepting , by the NAD over the secure network link , a particular request specifying said preceding redirected URL from the client computer ; in response to receiving the particular request , the NAD generating a particular response , the particular response comprising a subsequent redirected URL and a session identifier, wherein the subsequent redirected URL is configured to cause the client computer to redirect to the identity provider computer over an HTTPS connection; transferring , by the NAD , said subsequent redirected URL over the secure network link to the client computer ; transferring , by the NAD , a second HTTPS request , comprising the session identifier, from the client computer to the identity provider computer .
A bone graft implant for treating a bone defect, comprising: a porous matrix comprising a plurality of overlapping and interlocking bioactive glass fibers and bioactive glass particulates distributed throughout the fibers, the fibers and particulates each having varying diameters, and a range of pores defined by the spaces between said fibers and particulates , the varying diameters of the fibers and particulates controlling pore size and distribution of the range of pores and overall porosity of the matrix , the matrix further having a distributed porosity based on said range of pores such that the matrix is configured for staged resorption, wherein the range of pores comprises micropores and macropores, and further characterized in that the implant is moldable, and has a shape and size suitable for the bone defect.
A containment layer for a flywheel apparatus comprising: a substantially cylindrical chamber comprising an inner wall and an outer wall; and a plurality of deformable brackets attached to at least one of the inner and outer chamber wall, said brackets oriented to predictably deform upon an impact, said brackets each having at least one surface for containing an impact, with said brackets comprising multiple layers , wherein at least one layer comprises ablative particles. a substantially cylindrical chamber comprising an inner wall and an outer wall; and a plurality of deformable brackets attached to at least one of the inner and outer chamber wall, said brackets oriented to predictably deform upon an impact, said brackets each having at least one surface for containing an impact, with said brackets comprising multiple layers , wherein at least one layer comprises ablative particles.