mhurhangee/ep-ind-claims huggingface dataset:
Wheelchair frame, including • left and right first frame members (9,10), each including at least a first leg (11,12) for supporting a seat, arranged on opposite sides of a central axis aligned with a direction of displacement (d) of the wheelchair, in use, wherein the left and right first frame members (9, 10) including a first leg (11, 12) each include a second leg (13, 14) oriented at an angle to the first leg (11, 12) and transitioning into the first leg (11, 12) via a curved section (15, 16) of the respective first frame member (9, 10), and • left and right second frame members (29, 30) pivotably connected to the left and right first frame members (9, 10) and arrestable in a position in which they are oriented in a direction predominantly parallel to the first legs (11, 12) of the left and right first frame members (9, 10), • at least one first cross-brace - being connected to the first legs (11,12) of the left and right first frame members (9,10) at its ends, characterised in that said at least one first cross-brace further comprises - a non-circular cross-section along at least one section between the ends, and - sections (35,36) having a diameter smaller than at least a maximum diameter of the at least one section with the non-circular cross-section. • left and right first frame members (9,10), each including at least a first leg (11,12) for supporting a seat, arranged on opposite sides of a central axis aligned with a direction of displacement (d) of the wheelchair, in use, wherein the left and right first frame members (9, 10) including a first leg (11, 12) each include a second leg (13, 14) oriented at an angle to the first leg (11, 12) and transitioning into the first leg (11, 12) via a curved section (15, 16) of the respective first frame member (9, 10), and • left and right second frame members (29, 30) pivotably connected to the left and right first frame members (9, 10) and arrestable in a position in which they are oriented in a direction predominantly parallel to the first legs (11, 12) of the left and right first frame members (9, 10), • at least one first cross-brace - being connected to the first legs (11,12) of the left and right first frame members (9,10) at its ends, characterised in that said at least one first cross-brace further comprises - a non-circular cross-section along at least one section between the ends, and - sections (35,36) having a diameter smaller than at least a maximum diameter of the at least one section with the non-circular cross-section. - being connected to the first legs (11,12) of the left and right first frame members (9,10) at its ends, characterised in that said at least one first cross-brace further comprises - a non-circular cross-section along at least one section between the ends, and - sections (35,36) having a diameter smaller than at least a maximum diameter of the at least one section with the non-circular cross-section.
A wireless Internet access module, comprising a secure digital card interface function unit, a wireless Internet access processing function unit and an adaptation unit, wherein the secure digital card interface function unit is configured to, after it is detected that an electrical connection is established with a host side, receive downlink interaction information from the host side or send uplink interaction information to the host side; and the wireless Internet access processing function unit is configured to process the downlink interaction information from the host side, so as to implement wireless Internet access; the adaptation unit is configured to decapsulate the downlink interaction information encapsulated in a secure digital card interface format from the host side and received by the secure digital card interface function unit, deliver the decapsulated downlink interaction information to a corresponding port of the wireless Internet access processing function unit, receive the uplink interaction information reported to the host side from the port, encapsulate the received uplink interaction information in the secure digital card interface format, and send the encapsulated uplink interaction information to the host side through the secure digital card interface function unit, wherein the adaptation unit comprises: a secure digital card partition information generation subunit, configured to obtain configuration information of each port of the wireless Internet access processing function unit, and generate secure digital card partition information separately corresponding to each port according to the configuration information; a secure digital card partition information report subunit, configured to interact with the host side according to an initialization process of a secure digital card, and report the secure digital card partition information to the host side; and a secure digital card partition mapping subunit, configured to separately map a generated partition to a corresponding port of the wireless Internet access processing function unit. a secure digital card partition information generation subunit, configured to obtain configuration information of each port of the wireless Internet access processing function unit, and generate secure digital card partition information separately corresponding to each port according to the configuration information; a secure digital card partition information report subunit, configured to interact with the host side according to an initialization process of a secure digital card, and report the secure digital card partition information to the host side; and a secure digital card partition mapping subunit, configured to separately map a generated partition to a corresponding port of the wireless Internet access processing function unit.
Method for drying a biomass containing an oxidation-sensitive material of value, characterized in that the method comprises a drying step in which drying gas is passed over the biomass in cycle gas mode, wherein the drying step is a fluidized bed process and the drying gas has an oxygen content of less than 20% by weight.
A fault detection circuit for detecting faults in a hold-up power storage device that is configured to provide electrical power to a load, the fault detection circuit comprising: a hold-up monitoring circuit connected to monitor output of the hold-up power storage device, wherein the hold-up monitoring circuit is configured to: measure a duration of time that the hold-up power storage device provides power to the load following a loss of normal power until the electrical power falls to a threshold value; detect a fault if the measured duration of time is less than a threshold timer value; and generate a power-down interrupt signal when the electrical power falls to the threshold value; a timer for measuring the duration of time that the hold-up power storage device provides power to the load until the electrical power falls to the threshold value following the loss of normal power; and a memory device connected to the timer and configured to store the measured duration of time; wherein: the power-down interrupt signal initiates a graceful shutdown of the load; and the threshold value is selected so that the hold-up power storage device provides electrical power to the load to complete the graceful shutdown of the load. a hold-up monitoring circuit connected to monitor output of the hold-up power storage device, wherein the hold-up monitoring circuit is configured to: measure a duration of time that the hold-up power storage device provides power to the load following a loss of normal power until the electrical power falls to a threshold value; detect a fault if the measured duration of time is less than a threshold timer value; and generate a power-down interrupt signal when the electrical power falls to the threshold value; measure a duration of time that the hold-up power storage device provides power to the load following a loss of normal power until the electrical power falls to a threshold value; detect a fault if the measured duration of time is less than a threshold timer value; and generate a power-down interrupt signal when the electrical power falls to the threshold value; a timer for measuring the duration of time that the hold-up power storage device provides power to the load until the electrical power falls to the threshold value following the loss of normal power; and a memory device connected to the timer and configured to store the measured duration of time; wherein: the power-down interrupt signal initiates a graceful shutdown of the load; and the threshold value is selected so that the hold-up power storage device provides electrical power to the load to complete the graceful shutdown of the load. the power-down interrupt signal initiates a graceful shutdown of the load; and the threshold value is selected so that the hold-up power storage device provides electrical power to the load to complete the graceful shutdown of the load.
A substrate arrangement for manufacturing a card-shaped data carrier, comprising a substrate and at least one electric conductor path arranged on the substrate, characterized in that the substrate arrangement comprises a stabilization layer covering a region of the substrate, and the conductor path extends from a side of the stabilization layer facing away from the substrate to a region of the substrate not covered by the stabilization layer, wherein the stabilization layer is configured such that upon laminating the stabilization layer is pressed into the substrate, and the conductor path extends from the stabilization layer to the substrate such that an electric component arranged on the stabilization layer and electroconductively connected with the conductor path upon manufacture of the data carrier remains in electroconductive connection with the conductor path upon a laminating of a cover layer extending over the electric component.
Method for producing an expansion anchor, in which - a bolt is provided, which has an expansion body for spreading out an expansion sleeve surrounding the bolt, - a ring-shaped sleeve blank with an opening is provided, - the bolt is inserted into the opening of the ring-shaped sleeve blank and - the ring-shaped sleeve blank has its diameter reduced whilst the bolt is in the opening of the ring-shaped sleeve blank, characterised in that - providing the sleeve blank comprises moulding the sleeve blank into a cup in an extrusion method. - a bolt is provided, which has an expansion body for spreading out an expansion sleeve surrounding the bolt, - a ring-shaped sleeve blank with an opening is provided, - the bolt is inserted into the opening of the ring-shaped sleeve blank and - the ring-shaped sleeve blank has its diameter reduced whilst the bolt is in the opening of the ring-shaped sleeve blank, characterised in that - providing the sleeve blank comprises moulding the sleeve blank into a cup in an extrusion method.
A luer connection device comprising: a housing including a side wall having an inside surface defining a lumen with a central axis, a proximal end, and a distal end, the lumen extending from the proximal end through to the distal end, distal end including a male luer tip having a passageway therethrough providing fluid communication between the proximal end and the distal end; characterised in that a central flow diverter is disposed inside the lumen, the central flow diverter including a plurality of vanes having a tapered leading edge and a tapered tailing edge extending outwardly from the central axis to direct a fluid to a circumferential dead space distal to the male luer tip. a housing including a side wall having an inside surface defining a lumen with a central axis, a proximal end, and a distal end, the lumen extending from the proximal end through to the distal end, distal end including a male luer tip having a passageway therethrough providing fluid communication between the proximal end and the distal end; characterised in that a central flow diverter is disposed inside the lumen, the central flow diverter including a plurality of vanes having a tapered leading edge and a tapered tailing edge extending outwardly from the central axis to direct a fluid to a circumferential dead space distal to the male luer tip.
Method for manufacturing an adsorption agent for drying compressed gas, characterised in that this method comprises the following steps: - the provision of a monolithic supporting structure; - the production of a coating suspension that comprises an adsorbent, whereby for the production of the coating suspension an adsorbent is selected which comprises a hydrophilic zeolite; - the application of the aforementioned coating suspension on the aforementioned supporting structure to form a coating; - the application of a thermal treatment to the supporting structure with the coating, in order to sinter the coating; - whereby the application of the aforementioned coating suspension on the aforementioned supporting structure comprises the step of flushing or perfusing the supporting structure with the coating suspension concerned; - whereby the perfusion of the supporting structure is done from bottom to top, or in other words in the opposite direction to gravity; - whereby the perfusion is realised by pumping means that pump the coating suspension upwards through the supporting structure; - whereby coating material is removed after the perfusion of the supporting structure with coating suspension; - whereby the removal of surplus coating material is realized by reversing the operating direction of the pumping means concerned; and - whereby a part of the surplus coating material is evacuated from the supporting structure by applying one or more pressure pulses of a purge gas through the channels of the supporting structure. - the provision of a monolithic supporting structure; - the production of a coating suspension that comprises an adsorbent, whereby for the production of the coating suspension an adsorbent is selected which comprises a hydrophilic zeolite; - the application of the aforementioned coating suspension on the aforementioned supporting structure to form a coating; - the application of a thermal treatment to the supporting structure with the coating, in order to sinter the coating; - whereby the application of the aforementioned coating suspension on the aforementioned supporting structure comprises the step of flushing or perfusing the supporting structure with the coating suspension concerned; - whereby the perfusion of the supporting structure is done from bottom to top, or in other words in the opposite direction to gravity; - whereby the perfusion is realised by pumping means that pump the coating suspension upwards through the supporting structure; - whereby coating material is removed after the perfusion of the supporting structure with coating suspension; - whereby the removal of surplus coating material is realized by reversing the operating direction of the pumping means concerned; and - whereby a part of the surplus coating material is evacuated from the supporting structure by applying one or more pressure pulses of a purge gas through the channels of the supporting structure.
A method by a wireless device for adapting a codebook for use with multiple antenna configurations, the method comprising: determining, by the wireless device, a precoding codebook for providing CSI feedback, the precoding codebook comprising a plurality of codebook entries, each one of the plurality of codebook entries within the precoding codebook corresponding to a potential position of an antenna element of a network node; receiving, from the network node, an indication of a subset of codebook entries to be used when calculating the CSI feedback by the wireless device by receiving, from the network node, a list of integer indices of occupied antenna element locations; calculating, by the wireless device, the CSI feedback based on the indication from the network node, wherein calculating the CSI feedback comprises: using all of the plurality of codebook entries within the precoding codebook to calculate the CSI feedback when a number of antenna element positions that are occupied by an actual antenna element is above a threshold; and using the subset of codebook entries that is less than all of the plurality of codebook entries to calculate the CSI feedback when the number of antenna element positions that are occupied by an actual antenna element is below the threshold; and transmitting the CSI feedback to the network node. determining, by the wireless device, a precoding codebook for providing CSI feedback, the precoding codebook comprising a plurality of codebook entries, each one of the plurality of codebook entries within the precoding codebook corresponding to a potential position of an antenna element of a network node; receiving, from the network node, an indication of a subset of codebook entries to be used when calculating the CSI feedback by the wireless device by receiving, from the network node, a list of integer indices of occupied antenna element locations; calculating, by the wireless device, the CSI feedback based on the indication from the network node, wherein calculating the CSI feedback comprises: using all of the plurality of codebook entries within the precoding codebook to calculate the CSI feedback when a number of antenna element positions that are occupied by an actual antenna element is above a threshold; and using the subset of codebook entries that is less than all of the plurality of codebook entries to calculate the CSI feedback when the number of antenna element positions that are occupied by an actual antenna element is below the threshold; and using all of the plurality of codebook entries within the precoding codebook to calculate the CSI feedback when a number of antenna element positions that are occupied by an actual antenna element is above a threshold; and using the subset of codebook entries that is less than all of the plurality of codebook entries to calculate the CSI feedback when the number of antenna element positions that are occupied by an actual antenna element is below the threshold; and transmitting the CSI feedback to the network node.
A method of producing lubricating base oil using vacuum-distilled deasphalted oil, comprising the steps of: (a) introducing vacuum residual oil or a mixture of atmospheric residual oil and vacuum residual oil into a solvent deasphalting apparatus to obtain deasphalted oil; and (b) vacuum-distilling the deasphalted oil to obtain light deasphalted oil and heavy deasphalted oil, wherein the method further comprises the following steps for preparing heavy lubricating base oil of 500N or more: (c) hydrotreating the heavy deasphalted oil obtained in the step (b) in the presence of a hydrogenation catalyst to obtain a hydrotreated fraction; (d) dewaxing the hydrotreated fraction obtained in the step (c) in the presence of a dewaxing catalyst to obtain a dewaxed fraction; and (e) hydrofinishing the dewaxed fraction obtained in the step (d) in the presence of a hydrofinishing catalyst, wherein the method further comprises the following steps for preparing high-quality lubricating base oil including lubricating base oil of Group III: (c') mixing the light deasphalted oil obtained in the step (b) with vacuum gas oil to prepare a mixture and then hydrogenating and fractionating the mixture to separate the mixture into an oil product and unconverted oil; and (d') introducing the unconverted oil obtained in the step (c') into a vacuum distillation process. (a) introducing vacuum residual oil or a mixture of atmospheric residual oil and vacuum residual oil into a solvent deasphalting apparatus to obtain deasphalted oil; and (b) vacuum-distilling the deasphalted oil to obtain light deasphalted oil and heavy deasphalted oil, wherein the method further comprises the following steps for preparing heavy lubricating base oil of 500N or more: (c) hydrotreating the heavy deasphalted oil obtained in the step (b) in the presence of a hydrogenation catalyst to obtain a hydrotreated fraction; (d) dewaxing the hydrotreated fraction obtained in the step (c) in the presence of a dewaxing catalyst to obtain a dewaxed fraction; and (e) hydrofinishing the dewaxed fraction obtained in the step (d) in the presence of a hydrofinishing catalyst, wherein the method further comprises the following steps for preparing high-quality lubricating base oil including lubricating base oil of Group III: (c') mixing the light deasphalted oil obtained in the step (b) with vacuum gas oil to prepare a mixture and then hydrogenating and fractionating the mixture to separate the mixture into an oil product and unconverted oil; and (d') introducing the unconverted oil obtained in the step (c') into a vacuum distillation process. (c') mixing the light deasphalted oil obtained in the step (b) with vacuum gas oil to prepare a mixture and then hydrogenating and fractionating the mixture to separate the mixture into an oil product and unconverted oil; and (d') introducing the unconverted oil obtained in the step (c') into a vacuum distillation process.
A coasting control device configured to be installed in a vehicle and including a clutch system that is supplied with hydraulic oil in response to depression of a clutch pedal or by control of an actuator and disengages a clutch according to an amount of the supplied hydraulic oil, and the coasting control device being configured, when an engine is not doing any work for outside the engine while the vehicle is moving, to perform coasting control to cause the actuator to disengage the clutch and decrease an engine RPM to an idle RPM, characterized in that the coasting control device comprises: a clutch control unit performing a control to cause an amount of the supplied hydraulic oil that depends on an amount of depression of the clutch pedal to be ejected from the actuator when the clutch pedal is pressed during coasting control.
A microparticle composition comprising saflufenacil, wherein saflufenacil is present in the form of microparticles, which comprise solid saflufenacil, which is surrounded or embedded by an aminoplast polymer, which is a polycondensation product of one or more amino compounds and one or more aldehydes.