mhurhangee/ep-ind-claims huggingface dataset:
A battery cell assembly, comprising: a first frame member having a first plurality of tabs (52, 54, 56, 58, 60, 62, 64, 66, 68, 72, 74, 76) extending away from a first peripheral edge of the first frame member, each tab of the first plurality of tabs having a first coupling feature at a distal end of the respective tab; and a second frame member having a plurality of slots extending into a second peripheral edge of the second frame member; characterized by battery cells (26, 28) disposed between the first and second frame members, and wherein each first coupling feature of each tab of the first plurality of tabs is configured to engage a respective slot of the plurality of slots of the second frame member to fixedly hold the first and second frame members together, and a cooling manifold or fin (30, 38) disposed between the battery cells (26, 28), wherein each of the first frame member and the second frame member includes a rectangular ring-shaped portion (50, 250) having apertures (180, 182, 184) extending through the rectangular ring-shaped portion (50, 250), and wherein the cooling manifold or fin is fluidly coupled to an inlet fluid conduit and an outlet fluid conduit through the apertures (180, 182, 184). a first frame member having a first plurality of tabs (52, 54, 56, 58, 60, 62, 64, 66, 68, 72, 74, 76) extending away from a first peripheral edge of the first frame member, each tab of the first plurality of tabs having a first coupling feature at a distal end of the respective tab; and a second frame member having a plurality of slots extending into a second peripheral edge of the second frame member; characterized by battery cells (26, 28) disposed between the first and second frame members, and wherein each first coupling feature of each tab of the first plurality of tabs is configured to engage a respective slot of the plurality of slots of the second frame member to fixedly hold the first and second frame members together, and a cooling manifold or fin (30, 38) disposed between the battery cells (26, 28), wherein each of the first frame member and the second frame member includes a rectangular ring-shaped portion (50, 250) having apertures (180, 182, 184) extending through the rectangular ring-shaped portion (50, 250), and wherein the cooling manifold or fin is fluidly coupled to an inlet fluid conduit and an outlet fluid conduit through the apertures (180, 182, 184).
Expansion anchor having - an anchor bolt, - an expansion sleeve that surrounds the anchor bolt, and - a wedge body located in a front region of the anchor bolt for wedging the expansion sleeve, wherein the expansion sleeve has a front face facing the wedge body, - wherein at least one expansion slit is provided within the expansion sleeve, wherein the expansion slit originates at the front face of the expansion sleeve, wherein the expansion slit has a stem and a head that adjoins the stem, wherein the head is wider than the stem, and wherein the stem is located between the head and the front face of the expansion sleeve, characterized in that - the head is located off-centre with respect to the stem. - an anchor bolt, - an expansion sleeve that surrounds the anchor bolt, and - a wedge body located in a front region of the anchor bolt for wedging the expansion sleeve, wherein the expansion sleeve has a front face facing the wedge body, - wherein at least one expansion slit is provided within the expansion sleeve, wherein the expansion slit originates at the front face of the expansion sleeve, wherein the expansion slit has a stem and a head that adjoins the stem, wherein the head is wider than the stem, and wherein the stem is located between the head and the front face of the expansion sleeve, - the head is located off-centre with respect to the stem.
A hardware processor comprising: a plurality of cores that each include a buffer to store a logical to physical thread mapping; and a thread mapping hardware unit adapted to: return a valid physical thread identification in response to a logical thread identification sent to a buffer of a first core when the buffer includes a logical to physical thread mapping for the logical thread identification; and send a request to the buffers of the other cores when the buffer of the first core does not include the logical to physical thread mapping for the logical thread identification, wherein each of the other cores are to send an unknown identification response if their buffer does not include the logical to physical thread mapping for the logical thread identification and each of then other cores is to send the valid physical thread identification to the first core if its buffer includes the logical to physical thread mapping for the logical thread identification. a plurality of cores that each include a buffer to store a logical to physical thread mapping; and a thread mapping hardware unit adapted to: return a valid physical thread identification in response to a logical thread identification sent to a buffer of a first core when the buffer includes a logical to physical thread mapping for the logical thread identification; and send a request to the buffers of the other cores when the buffer of the first core does not include the logical to physical thread mapping for the logical thread identification, wherein each of the other cores are to send an unknown identification response if their buffer does not include the logical to physical thread mapping for the logical thread identification and each of then other cores is to send the valid physical thread identification to the first core if its buffer includes the logical to physical thread mapping for the logical thread identification. return a valid physical thread identification in response to a logical thread identification sent to a buffer of a first core when the buffer includes a logical to physical thread mapping for the logical thread identification; and send a request to the buffers of the other cores when the buffer of the first core does not include the logical to physical thread mapping for the logical thread identification, wherein each of the other cores are to send an unknown identification response if their buffer does not include the logical to physical thread mapping for the logical thread identification and each of then other cores is to send the valid physical thread identification to the first core if its buffer includes the logical to physical thread mapping for the logical thread identification.
A method of monitoring a spatter generating event during a welding application comprising: capturing data that corresponds to a welding current of the welding application; detecting parameters associated with a short circuit from the captured data, characterised by comprising detecting a duration of the short circuit and a short circuit current; and further characterised by the following steps: analyzing the detected parameters to monitor the spatter generating event during the welding application, comprising determining whether the duration of the short circuit is greater than a threshold time period and determining whether the short circuit current is greater than a threshold current; and communicating the occurrence of the spatter generating event. capturing data that corresponds to a welding current of the welding application; detecting parameters associated with a short circuit from the captured data, characterised by comprising detecting a duration of the short circuit and a short circuit current; and further characterised by the following steps: analyzing the detected parameters to monitor the spatter generating event during the welding application, comprising determining whether the duration of the short circuit is greater than a threshold time period and determining whether the short circuit current is greater than a threshold current; and communicating the occurrence of the spatter generating event.
Polymer, comprising a repeat unit A having a general formula selected from one of the following general formulae (I-a), (I-b), (I-c), (I-d), (I-e) and (I-f): wherein R 1 is an optionally substituted organic residue that comprises at least one cationic moiety having at least one positive charge; R 2 is an optionally substituted organic residue; R3 and R4 are selected independently of each other from H and an optionally substituted organic residue; X 1 and X 2 are selected independently of each other from O and S; Y 1 and Y 2 are selected independently of each other from O, S, NH, NR 5 and PR 5, wherein R 5 is C 1 to C12 alkyl; Y 3 is selected from O and S; and n is from 2 to 4500. R 1 is an optionally substituted organic residue that comprises at least one cationic moiety having at least one positive charge; R 2 is an optionally substituted organic residue; R3 and R4 are selected independently of each other from H and an optionally substituted organic residue; X 1 and X 2 are selected independently of each other from O and S; Y 1 and Y 2 are selected independently of each other from O, S, NH, NR 5 and PR 5, wherein R 5 is C 1 to C12 alkyl; Y 3 is selected from O and S; and n is from 2 to 4500.
A method for attenuating noise produced by pipes transporting a flow of fluids, gases, particles or combinations of any of those, comprising the steps of: - providing a pipe arrangement, which comprises an inner pipe that defines in its inside an inner flow channel which progresses in pipe direction of the inner pipe, and an outer pipe that surrounds the inner pipe and progresses substantially parallel thereto, thereby defining an outer flow channel between the two pipes (12, 18) which is substantially parallel to the inner flow channel, - establishing a steam flow in and along the inner flow channel, - establishing a water flow in and along the outer flow channel, said water flow being adapted to attenuate a noise produced by said steam flow flowing through the inner flow channel, and streaming gas into the water flow to generate a stream of gas bubbles within said water flow. - providing a pipe arrangement, which comprises an inner pipe that defines in its inside an inner flow channel which progresses in pipe direction of the inner pipe, and an outer pipe that surrounds the inner pipe and progresses substantially parallel thereto, thereby defining an outer flow channel between the two pipes (12, 18) which is substantially parallel to the inner flow channel, - establishing a steam flow in and along the inner flow channel, - establishing a water flow in and along the outer flow channel, said water flow being adapted to attenuate a noise produced by said steam flow flowing through the inner flow channel, and
A home appliance having a WIFI module, the home appliance comprising: an input unit (20, 22) configured to select an access point, AP, conversion mode of the home appliance; and a control unit configured to operate the home appliance as an AP home appliance when the AP conversion mode is selected, wherein the control unit operates the home appliance in the AP conversion mode to receive network set-up information for setting up a network of the home appliance, from an external device, by using the WIFI module, without a user input, and wherein the network set-up information includes a Service Set Identifier, SSID, an authentication method, an encryption method, and an authentication key. an input unit (20, 22) configured to select an access point, AP, conversion mode of the home appliance; and a control unit configured to operate the home appliance as an AP home appliance when the AP conversion mode is selected, wherein the control unit operates the home appliance in the AP conversion mode to receive network set-up information for setting up a network of the home appliance, from an external device, by using the WIFI module, without a user input, and wherein the network set-up information includes a Service Set Identifier, SSID, an authentication method, an encryption method, and an authentication key.
A vacuum material handler for being mounted on the boom of an excavator or overhead crane, said handler comprising: a frame, an onboard drive engine mounted on said frame, an onboard vacuum pump mounted on said frame an onboard hydraulic pump mounted on said frame, and a hydraulic rotator mounted on said frame and powered by said hydraulic pump; characterised in that an input shaft of the said vacuum pump is coupled to an output shaft of the drive engine, and an input shaft of the said hydraulic pump is coupled to an output shaft of the vacuum pump, and said hydraulic rotator is capable of rotating said frame relative to the boom. a frame, an onboard drive engine mounted on said frame, an onboard vacuum pump mounted on said frame an onboard hydraulic pump mounted on said frame, and a hydraulic rotator mounted on said frame and powered by said hydraulic pump; characterised in that
A method of performing message payload processing functions in a network element on behalf of an application, comprising: receiving, at the network element, user-specified input; intercepting, at the network element, one or more data packets that are destined for a device other than the network element, wherein the device hosts the application; determining, based on the one or more data packets, whether an application layer message directed to the application said message being contained in one or more payloads of the data packets matches a message classification indicated in the user-specified input; and if the application layer message matches the message classification, processing at least a portion of the application layer message by performing, relative to the portion of the message, one or more actions on behalf of the application, the one or more actions being both specified in the user-specified input and associated with the message classification; wherein at least one of the one or more actions comprises modifying the portion of the message to produce a modified message. receiving, at the network element, user-specified input; intercepting, at the network element, one or more data packets that are destined for a device other than the network element, wherein the device hosts the application; determining, based on the one or more data packets, whether an application layer message directed to the application said message being contained in one or more payloads of the data packets matches a message classification indicated in the user-specified input; and if the application layer message matches the message classification, processing at least a portion of the application layer message by performing, relative to the portion of the message, one or more actions on behalf of the application, the one or more actions being both specified in the user-specified input and associated with the message classification; wherein at least one of the one or more actions comprises modifying the portion of the message to produce a modified message.
Cooling system for cooling a first integrated motorcompressor unit comprising, integrated in a single case, a first compressor having a fluid intake and a fluid discharge, and a first motor, a first compressor area and a first motor area being defined inside said case, integrated in another single case, a second integrated motorcompressor unit comprising a second compressor having a fluid intake and a fluid discharge and a second motor, a second compressor area and a second motor area being defined inside said case, wherein the system comprises a first duct fluidly connecting a connection point located at the second motor area of said second motorcompressor unit to one fluid injection point (92, 92a) located at the first motor area of said first motorcompressor unit, characterized in that said first compressor and said first motor are separated by an intermediate diaphragm, said second compressor and said second motor are separated by an intermediate diaphragm and the fluid discharge of said second compressor is connected to the fluid intake of said first compressor. integrated in a single case, a first compressor having a fluid intake and a fluid discharge, and a first motor, a first compressor area and a first motor area being defined inside said case, integrated in another single case, a second integrated motorcompressor unit comprising a second compressor having a fluid intake and a fluid discharge and a second motor, a second compressor area and a second motor area being defined inside said case, wherein the system comprises a first duct fluidly connecting a connection point located at the second motor area of said second motorcompressor unit to one fluid injection point (92, 92a) located at the first motor area of said first motorcompressor unit, characterized in that said first compressor and said first motor are separated by an intermediate diaphragm, said second compressor and said second motor are separated by an intermediate diaphragm and the fluid discharge of said second compressor is connected to the fluid intake of said first compressor.
A method of cast molding contact lenses, wherein a lens forming material is cured in the lens-shaped cavity formed between molding surfaces of a male and female mold sections, characterized in that the method comprises injection molding at least one of mold sections from a controlled rheology polypropylene, and wherein a nucleating agent is contacted with the controlled rheology polypropylene, wherein the controlled rheology polypropylene has a melt flow rate of from 12 g/10 minutes to 80 g/10 minutes, and wherein the controlled rheology polypropylene has an increased melt flow rate of at least about 6 g/10 minutes compared to the corresponding pristine polypropylene.
An apparatus for realizing dynamic point selection, comprising: a module for receiving (step 100) estimated channel quality reported by all Transmission Points, TPs, in a Coordinated MultiPoint, CoMP, set; a module for switching (step 110) a serving TP for User Equipments, UEs, based on the estimated channel quality and/or cell load; a module for forwarding (step120) scheduled data from a primary TP to the serving TP; a module for separately transmitting (step130) Physical Downlink Control Channel, PDCCH, to the UEs by the primary TP and transmitting Physical Downlink Shared Channel, PDSCH, to the UEs by the serving TP. a module for receiving (step 100) estimated channel quality reported by all Transmission Points, TPs, in a Coordinated MultiPoint, CoMP, set; a module for switching (step 110) a serving TP for User Equipments, UEs, based on the estimated channel quality and/or cell load; a module for forwarding (step120) scheduled data from a primary TP to the serving TP; a module for separately transmitting (step130) Physical Downlink Control Channel, PDCCH, to the UEs by the primary TP and transmitting Physical Downlink Shared Channel, PDSCH, to the UEs by the serving TP.
A computer-implemented method comprising: generating a road graph comprising a plurality of road links associated with a road closure detected by a road closure detection system, wherein the road closure detection system stores probe data for the plurality of road links over respective detection dynamic time windows used for detecting the road closure, wherein each respective detection dynamic time window stores past probe data for each road link; extracting respective verification dynamic time windows for the plurality of road links, such that each respective verification dynamic time window has a width whereby the total expected vehicle volume in the verification dynamic time window is greater than or equal to a verification threshold volume, wherein the respective verification dynamic time windows are used by a road closure verification system to verify the road closure; filling the respective verification dynamic time windows using the probe data stored by the road closure detection system; and initiating a verification of the road closure based on the filled respective verification dynamic time windows. generating a road graph comprising a plurality of road links associated with a road closure detected by a road closure detection system, wherein the road closure detection system stores probe data for the plurality of road links over respective detection dynamic time windows used for detecting the road closure, wherein each respective detection dynamic time window stores past probe data for each road link; extracting respective verification dynamic time windows for the plurality of road links, such that each respective verification dynamic time window has a width whereby the total expected vehicle volume in the verification dynamic time window is greater than or equal to a verification threshold volume, wherein the respective verification dynamic time windows are used by a road closure verification system to verify the road closure; filling the respective verification dynamic time windows using the probe data stored by the road closure detection system; and initiating a verification of the road closure based on the filled respective verification dynamic time windows.
A peripheral catheter, comprising: a catheter body of a predetermined wall thickness, the catheter body member having a proximal end, a distal end, a lumen extending between the proximal and distal ends, and a distal lumen opening, the catheter body further having a truncated length sufficient to access a peripheral vein of a patient; a plurality of holes (508, 510) positioned on the distal end of the catheter body member, each hole being formed through the wall thickness of the catheter body and in communication with the lumen, wherein at least one of the holes (508, 510) includes an inward projection (516, 518) on an inner wall surface of the hole, characterized in that a first hole and a second hole are oriented such that a first fluid jet exiting the first hole collides with a second fluid jet exiting the second hole. a catheter body of a predetermined wall thickness, the catheter body member having a proximal end, a distal end, a lumen extending between the proximal and distal ends, and a distal lumen opening, the catheter body further having a truncated length sufficient to access a peripheral vein of a patient; a plurality of holes (508, 510) positioned on the distal end of the catheter body member, each hole being formed through the wall thickness of the catheter body and in communication with the lumen, wherein at least one of the holes (508, 510) includes an inward projection (516, 518) on an inner wall surface of the hole, characterized in that a first hole and a second hole are oriented such that a first fluid jet exiting the first hole collides with a second fluid jet exiting the second hole.