mhurhangee/ep-ind-claims huggingface dataset:
A paint cartridge configured to be mounted in a docking station, the paint cartridge comprising: (a) a housing having an internal cavity; (b) a piston (150, 152) being configured to be slidably disposed within the internal cavity, the piston being configured for dividing the internal cavity into a paint chamber and a solvent chamber; (c) more than one valve assembly configured for extending through associated apertures in the piston (150, 152), each valve assembly being configured for selectively allowing the paint chamber to be in fluid communication with the solvent chamber, each valve assembly comprising a valve configured for slidably extending through the piston (150, 152); (d) a solvent inlet in fluid communication with the solvent chamber and configured for providing solvent to the solvent chamber; and (e) a paint outlet in fluid communication with the paint chamber, solvent selectively provided to the solvent chamber through the solvent inlet is configured to move the piston (150, 152) whereby movement of the piston increases the volume of the solvent chamber and discharges paint from the paint chamber through the paint outlet; wherein each valve is configured to selectively define a path for solvent to pass through the paint chamber and out the paint outlet, at least a portion of the path extending along and being partially defined by each valve. (a) a housing having an internal cavity; (b) a piston (150, 152) being configured to be slidably disposed within the internal cavity, the piston being configured for dividing the internal cavity into a paint chamber and a solvent chamber; (c) more than one valve assembly configured for extending through associated apertures in the piston (150, 152), each valve assembly being configured for selectively allowing the paint chamber to be in fluid communication with the solvent chamber, each valve assembly comprising a valve configured for slidably extending through the piston (150, 152); (d) a solvent inlet in fluid communication with the solvent chamber and configured for providing solvent to the solvent chamber; and (e) a paint outlet in fluid communication with the paint chamber, solvent selectively provided to the solvent chamber through the solvent inlet is configured to move the piston (150, 152) whereby movement of the piston increases the volume of the solvent chamber and discharges paint from the paint chamber through the paint outlet;
A clamp for interconnecting two plate-like members (16, 17) so as to make them together form a substantially rectangular corner, said clamp having two legs (2, 3) resiliently connected to each other, making an angle being less than 90° with each other in a rest state of the clamp and being in a state of interconnecting said plate-like members configured to extend around a said corner while storing more potential energy than in said rest state and be located along an outer surface of the plate-like members, each leg having at an outer end (5, 6) thereof remote to a transition to the other leg a member (7, 8) configured to engage a part (18, 19) of a said plate-like member in said interconnecting state, wherein at least one of said legs is provided with an opening (11, 12) designed to receive an end of an elongated tool member in said interconnecting state of the clamp for enabling removal of said clamp in said interconnecting state from said plate-like members by influencing that leg in the direction apart from the other leg and by that moving said engagement member (7, 8) out of engagement with said part of the plate-like member, said opening (11, 12) being directed towards said transition of the legs (2, 3) to each other so as to enable support of said tool member by leg portions in the region of said transition while urging the two legs apart for obtaining said removal, the clamp further comprising a member (13, 14) defining said opening and extending out from surrounding portions (9, 10) of said leg in the direction towards said transition, characterized in that said opening defining member (13, 14) has a surface thereof diverging from said surrounding leg portions (9, 10) and providing support for an end of a said tool member, such that said tool member will not act upon any part of the plate-like member when the clamp is being removed, and that said surface of said opening defining member (13, 14) makes an angle with respect to said surrounding leg portions (9, 10) of 5°-30°.
A method for Unstructured Data Storage Function, UDSF, services in a telecommunications network, the method comprising: at a UDSF node for providing UDSF services and having circuitry: receiving, from a first network node, a first request to perform a data operation involving first data associated with an identified User Equipment, UE, and an identified Network Function, NF; characterized in that the method comprises: sending, to the first network node, a response to the first request, the response comprising a locking status of the first data and redirect information that identifies a network node for which the first data has been locked, when the locking status indicates that the first data is locked. at a UDSF node for providing UDSF services and having circuitry: receiving, from a first network node, a first request to perform a data operation involving first data associated with an identified User Equipment, UE, and an identified Network Function, NF; characterized in that the method comprises: sending, to the first network node, a response to the first request, the response comprising a locking status of the first data and redirect information that identifies a network node for which the first data has been locked, when the locking status indicates that the first data is locked.
A film comprising at least two layers, a first layer and a second layer; and wherein the first layer is formed from a first composition comprising a polyester and/or a polylactic acid; and wherein the second layer is formed from a second composition comprising at least the following: A) a functionalized ethylene-based polymer, and B) at least one ethylene/alkylacrylate copolymer; wherein the second composition further comprises a LDPE. and wherein the first layer is formed from a first composition comprising a polyester and/or a polylactic acid; and wherein the second layer is formed from a second composition comprising at least the following: A) a functionalized ethylene-based polymer, and B) at least one ethylene/alkylacrylate copolymer; A) a functionalized ethylene-based polymer, and B) at least one ethylene/alkylacrylate copolymer; wherein the second composition further comprises a LDPE.
A method for reducing stress of a garniture belt in a tobacco industry machine for manufacturing rods (R, R') from a continuous rod (CR, CR') comprising a filling material wrapped by a wrapper (7, 7'), the continuous rod (CR, CR') being formed on the garniture belt being driven in a garniture channel of a garniture device (11, 11'), wherein the garniture device (11, 11') comprises a filling material receiving section, a rod diameter setting section and a rod stabilizing section, wherein the machine comprises at least one feeding unit (9, 9') for feeding the filling material onto the wrapper (7, 7') being transported on the garniture belt, a glue feeding unit, a cutting head for cutting the continuous rod (CR, CR') into the rods (R, R'), the method characterized by adjusting a resistance of motion of the garniture belt by: - reducing the resistance of motion of the garniture belt in the filling material receiving section by adjusting positions of guiding bars (31, 32), for guiding the garniture belt, in a horizontal direction so that a width (dA, dB) of the garniture channel in the filling material receiving section is greater than a width (dC) of the garniture channel in the rod diameter setting section, and/or - reducing the resistance of motion of the garniture belt in the rod stabilizing section by adjusting positions of guiding bars (39, 40), for guiding the garniture belt, in the horizontal direction so that a width (dD, dE) of the garniture channel in the rod stabilizing section is greater than the width (dC) of the garniture channel in the rod diameter setting section. - reducing the resistance of motion of the garniture belt in the filling material receiving section by adjusting positions of guiding bars (31, 32), for guiding the garniture belt, in a horizontal direction so that a width (dA, dB) of the garniture channel in the filling material receiving section is greater than a width (dC) of the garniture channel in the rod diameter setting section, and/or - reducing the resistance of motion of the garniture belt in the rod stabilizing section by adjusting positions of guiding bars (39, 40), for guiding the garniture belt, in the horizontal direction so that a width (dD, dE) of the garniture channel in the rod stabilizing section is greater than the width (dC) of the garniture channel in the rod diameter setting section.
A learning means for calcualtion operations, having: - a housing with a housing cover surface and a housing base, - openings, which are formed in accordance with a regular arrangement in the housing cover surface, - ball elements, which are each arranged in the housing behind an assigned opening and in a manner rotatable about a ball axis of symmetry in the housing, - motif and/or colour markings, which are each formed on the ball elements, distributed over the ball element surface, - latching devices (22, 24), using which the ball elements are secured in a latching manner in different respective rotational positions in such a manner that in each of the different rotational positions, one of the motif and/or colour markings is arranged in the region of the opening assigned to the respective ball element and is visible from the outside, and - bearing devices, which are formed with a shaft, on which a latching element is arranged, which interacts in a latching manner with a counterpart latching element in the different rotational positions, characterized in that - the ball elements are each mounted in a separately rotatable manner in the housing by means of the bearing devices, - in the bearing devices, the counterpart latching element is formed on an insertion part arranged in the housing and mounted therein, wherein the counterpart latching element is arranged in the housing on a side facing the housing base in relation to the shaft. - a housing with a housing cover surface and a housing base, - openings, which are formed in accordance with a regular arrangement in the housing cover surface, - ball elements, which are each arranged in the housing behind an assigned opening and in a manner rotatable about a ball axis of symmetry in the housing, - motif and/or colour markings, which are each formed on the ball elements, distributed over the ball element surface, - latching devices (22, 24), using which the ball elements are secured in a latching manner in different respective rotational positions in such a manner that in each of the different rotational positions, one of the motif and/or colour markings is arranged in the region of the opening assigned to the respective ball element and is visible from the outside, and - bearing devices, which are formed with a shaft, on which a latching element is arranged, which interacts in a latching manner with a counterpart latching element in the different rotational positions, - the ball elements are each mounted in a separately rotatable manner in the housing by means of the bearing devices, - in the bearing devices, the counterpart latching element is formed on an insertion part arranged in the housing and mounted therein, wherein the counterpart latching element is arranged in the housing on a side facing the housing base in relation to the shaft.
An article of footwear, comprising: an upper configured to receive a foot of a wearer; a sole structure, connected to the upper and including: an outsole configured to contact a surface, and a midsole, the midsole further including an airbag configured to provide impact attenuation and a structural insert configured within the airbag and configured to provide support to the foot of the wearer, wherein the structural insert is formed using a rapid manufacturing additive fabrication technique. an upper configured to receive a foot of a wearer; a sole structure, connected to the upper and including: an outsole configured to contact a surface, and a midsole, the midsole further including an airbag configured to provide impact attenuation and a structural insert configured within the airbag and configured to provide support to the foot of the wearer, an outsole configured to contact a surface, and a midsole, the midsole further including an airbag configured to provide impact attenuation and a structural insert configured within the airbag and configured to provide support to the foot of the wearer, impact attenuation and a structural insert configured within the airbag and configured to provide support to the foot of the wearer, wherein the structural insert is formed using a rapid manufacturing additive fabrication technique.
An organic light emitting diode (OLED) display device, comprising: a substrate; a first electrode disposed on the substrate; an organic layer comprising an emission layer, the organic layer formed on the first electrode; and a second electrode, which is a cathode, comprising an ytterbium (Yb) layer formed on the organic layer and a silver (Ag) formed on the ytterbium layer, characterised in that the second electrode is formed to a thickness of 90 Å to 120 Å and the Yb layer of the second electrode is formed to a thickness of 20 Å to 30 Å, and the Ag layer is formed to a thickness of 70 Å to 90 Å. a substrate; a first electrode disposed on the substrate; an organic layer comprising an emission layer, the organic layer formed on the first electrode; and a second electrode, which is a cathode, comprising an ytterbium (Yb) layer formed on the organic layer and a silver (Ag) formed on the ytterbium layer, characterised in that the second electrode is formed to a thickness of 90 Å to 120 Å and the Yb layer of the second electrode is formed to a thickness of 20 Å to 30 Å, and the Ag layer is formed to a thickness of 70 Å to 90 Å.
A transmembrane fusion protein having the capability of delivering a biologically active molecule into a cell or a nucleus,comprising: ubiquitin or a ubiquitin-like protein; a membrane translocation sequence linked to the C-terminus of the ubiquitin or ubiquitin-like protein; and the biologically active molecule linked to the C-terminus of the membrane translocation sequence. ubiquitin or a ubiquitin-like protein; a membrane translocation sequence linked to the C-terminus of the ubiquitin or ubiquitin-like protein; and the biologically active molecule linked to the C-terminus of the membrane translocation sequence.
An Internet of Things (IoT) device, comprising: a resource (145, 345); and an actuator coupled with the resource (145, 345) to set one or more attributes of the resource (145, 345); wherein: the resource (145, 345) is associated with a unique resource identifier and a plurality of properties; the URI uniquely identifies the resource (145, 345) among a plurality of resources disposed among IoT devices of an IoT device hierarchy; and the plurality of properties includes a hierarchical interface property that indicates the resource (145, 345) is accessible in a hierarchical manner, wherein the hierarchical interface property is at least one of a parent URI property or a child URI property; the parent URI property, when included, has a property value that identifies a parent URI of a parent resource of the plurality of resources which has a parent resource relationship to the resource in the IoT device hierarchy; and the child URI property, when included, has a property value that identifies a child URI of a child resource of the plurality of resources which has a child resource relationship to the resource. a resource (145, 345); and an actuator coupled with the resource (145, 345) to set one or more attributes of the resource (145, 345); wherein: the resource (145, 345) is associated with a unique resource identifier and a plurality of properties; the URI uniquely identifies the resource (145, 345) among a plurality of resources disposed among IoT devices of an IoT device hierarchy; and the plurality of properties includes a hierarchical interface property that indicates the resource (145, 345) is accessible in a hierarchical manner, wherein the hierarchical interface property is at least one of a parent URI property or a child URI property; the parent URI property, when included, has a property value that identifies a parent URI of a parent resource of the plurality of resources which has a parent resource relationship to the resource in the IoT device hierarchy; and the child URI property, when included, has a property value that identifies a child URI of a child resource of the plurality of resources which has a child resource relationship to the resource. the resource (145, 345) is associated with a unique resource identifier and a plurality of properties; the URI uniquely identifies the resource (145, 345) among a plurality of resources disposed among IoT devices of an IoT device hierarchy; and the plurality of properties includes a hierarchical interface property that indicates the resource (145, 345) is accessible in a hierarchical manner, wherein the hierarchical interface property is at least one of a parent URI property or a child URI property; the parent URI property, when included, has a property value that identifies a parent URI of a parent resource of the plurality of resources which has a parent resource relationship to the resource in the IoT device hierarchy; and the child URI property, when included, has a property value that identifies a child URI of a child resource of the plurality of resources which has a child resource relationship to the resource.
An integrator circuit device comprising: an integrator (210, 310) configured to perform integration on an input signal in a positive direction or a negative direction to generate an output voltage (Vout); a comparator (250; 351, 352) configured to compare the output voltage generated by the integrator with a preset voltage which is either a first threshold voltage or a second threshold voltage that is greater than the first threshold voltage; a switching controller (220, 320) configured to control a switch to change the integration direction of the integrator, based on a result of the comparison, so that the integrator performs the integration on the input signal in the positive direction or the negative direction; a counter (230, 330) configured to count the number of times the integration direction of the integrator is changed; and a controller configured to determine a final output voltage, based on the counted number of times the integration direction is changed multiplied by the difference between the first and second threshold voltages and added to or subtracted from the output voltage (Vout) generated by the integrator; wherein the switching controller is further configured, in response to the output voltage generated by the integrator being less than or equal to the first threshold voltage or greater than or equal to the second threshold voltage, to control the switch to change the integration direction of the integrator. an integrator (210, 310) configured to perform integration on an input signal in a positive direction or a negative direction to generate an output voltage (Vout); a comparator (250; 351, 352) configured to compare the output voltage generated by the integrator with a preset voltage which is either a first threshold voltage or a second threshold voltage that is greater than the first threshold voltage; a switching controller (220, 320) configured to control a switch to change the integration direction of the integrator, based on a result of the comparison, so that the integrator performs the integration on the input signal in the positive direction or the negative direction; a counter (230, 330) configured to count the number of times the integration direction of the integrator is changed; and a controller configured to determine a final output voltage, based on the counted number of times the integration direction is changed multiplied by the difference between the first and second threshold voltages and added to or subtracted from the output voltage (Vout) generated by the integrator; wherein the switching controller is further configured, in response to the output voltage generated by the integrator being less than or equal to the first threshold voltage or greater than or equal to the second threshold voltage, to control the switch to change the integration direction of the integrator.
Method for determining a channel load in vehicle-to-X communication, comprising the following steps: - receiving a number of vehicle-to-X messages, - determining a plurality of channel load parameters on the basis of the vehicle-to-X messages, and - determining the channel load on the basis of at least the channel load parameters; - wherein an increased channel load is determined in the step of determining the channel load if more than half of all channel load parameters taken into account in the step of determining the channel load indicate an increased channel load; - wherein a channel load parameter of the plurality of channel load parameters is determined using the following steps: - storing each received vehicle-to-X message in a buffer memory, wherein applications (50, 55) each cyclically read vehicle-to-X messages from the buffer memory, and - determining the channel load parameter on the basis of the number of vehicle-to-X messages stored in the buffer memory. - receiving a number of vehicle-to-X messages, - determining a plurality of channel load parameters on the basis of the vehicle-to-X messages, and - determining the channel load on the basis of at least the channel load parameters; - wherein an increased channel load is determined in the step of determining the channel load if more than half of all channel load parameters taken into account in the step of determining the channel load indicate an increased channel load; - wherein a channel load parameter of the plurality of channel load parameters is determined using the following steps: - storing each received vehicle-to-X message in a buffer memory, wherein applications (50, 55) each cyclically read vehicle-to-X messages from the buffer memory, and - determining the channel load parameter on the basis of the number of vehicle-to-X messages stored in the buffer memory.