mhurhangee/ep-ind-claims huggingface dataset:
A System that provides a secured connection between servers on the LAN and clients on the WAN comprising: LAN and DMZ; wherein the LAN includes Service, LAN Server and the LAN Controller; wherein the DMZ includes DMZ Server and DMZ Stack Pool Service; wherein when a Client Request reaches the DMZ Server it stores the Client Request in the DMZ Stack Pool Service; wherein the LAN Controller establishes outbound TCP based connection to the DMZ Stack Pool Service; wherein the DMZ Stack Pool Service then passes the Client Connection Information, to the LAN Server via the LAN Controller; wherein the LAN Server then generates two TCP/IP connections: One connection is to the Service and the second is an outbound connection to the DMZ Server and creating a Connection Binder in the LAN Server between the Service and the outbound connection; wherein the DMZ Server then creates a Connection Binder in the DMZ Server between the incoming Client Request and the outbound connection arriving from the LAN Server; Whereby by completing the route of the Client Request; and whereby once the Connection Binder, in the DMZ Server, binds the Client Request and the outbound connection arriving from the LAN Server, the Client Request is finally streamed through the DMZ Server and the LAN Server over the System, and then the client request data streams from the Service to the Client.
A combined filament yarn producing device which separates plural yarns spun out from a spinning apparatus into a first group of yarns and a second group of yarns, processes the first group of yarns and the second group of yarns differently from one another, and then produces combined filament yarns by combining the first group of yarns with the second group of yarns, the combined filament yarn producing device comprising: a first heating roller (31 to 33); a second heating roller (34, 35) which is provided downstream of the first heating roller (31 to 33) in a yarn running direction and which is higher in yarn feeding speed and temperature than the first heating roller (31 to 33); a thermal insulation box in which the first heating roller (31 to 33) and the second heating roller (34, 35) are provided; a guide roller by which the second group of yarns are guided to the second heating roller (34, 35) without passing the first heating roller (31 to 33); and a yarn doubling unit configured to perform yarn doubling for the first group of yarns and the second group of yarns, the first group of yarns reaching the second heating roller (34, 35) via the first heating roller (31 to 33) and being drawn between the first heating roller (31 to 33) and the second heating roller (34, 35), the second group of yarns reaching the second heating roller (34, 35) via the guide roller, and the yarn doubling unit combining the first group of yarns with the second group of yarns. a first heating roller (31 to 33); a second heating roller (34, 35) which is provided downstream of the first heating roller (31 to 33) in a yarn running direction and which is higher in yarn feeding speed and temperature than the first heating roller (31 to 33); a thermal insulation box in which the first heating roller (31 to 33) and the second heating roller (34, 35) are provided; a guide roller by which the second group of yarns are guided to the second heating roller (34, 35) without passing the first heating roller (31 to 33); and a yarn doubling unit configured to perform yarn doubling for the first group of yarns and the second group of yarns, the first group of yarns reaching the second heating roller (34, 35) via the first heating roller (31 to 33) and being drawn between the first heating roller (31 to 33) and the second heating roller (34, 35), the second group of yarns reaching the second heating roller (34, 35) via the guide roller, and the yarn doubling unit combining the first group of yarns with the second group of yarns.
A method for producing a spherical silver powder which has a closed cavity in each particle thereof and which has a mean particle size D 50 of 0.1 to 10 μm when the particle size is obtained by a laser diffraction method, said method comprising the steps of: preparing an aqueous solution containing a silver ammonia complex; preparing a reducing agent containing solution which contains an aldehyde as a reducing agent; and depositing silver particles by reduction by mixing the reducing agent containing solution with the aqueous solution while causing cavitation in the aqueous solution by irradiating the aqueous solution with ultrasonic waves. preparing an aqueous solution containing a silver ammonia complex; preparing a reducing agent containing solution which contains an aldehyde as a reducing agent; and depositing silver particles by reduction by mixing the reducing agent containing solution with the aqueous solution while causing cavitation in the aqueous solution by irradiating the aqueous solution with ultrasonic waves.
An anchor system (10; 700) for securing a medical instrument, comprising: a retainer body (110; 702) to couple to a catheter; a plurality of flexible anchors (120a, 120b; 703a, 703b) releasably coupled to the retainer body (110; 702), each anchor (120a, 120b; 703a, 703b) comprising a flexible tine (129a, 129b; 728a, 728b) that is deployable in a subcutaneous region to secure the retainer body (110; 702) relative to a penetration point; and an actuator that, when activated, moves the anchors (120a, 120b; 703a, 703b) from a non-deployed position to a deployed position in which the anchors flexible anchors (120a, 120b; 703a, 703b) extend distally from the retainer body (110; 702) and into the subcutaneous region, and wherein the plurality of anchors (120a, 120b; 703a, 703b) extend distally from the retainer body (110; 702) to deploy into the penetration point occupied by the catheter when the retainer body (110; 702) couples to the catheter while the retainer body remains outside of the skin.
A system comprising: a transmitter coupled to a link; a receiver coupled to the link and configured to receive signals over the link from the transmitter; a transmit control module configured to cause the transmitter to enter and exit a low-power mode; and a clock module coupled to the transmitter and configured to provide a clock signal to the transmitter, wherein the clock module is further configured to provide the clock signal as a divided clock signal to the transmitter when the transmitter is in the low-power mode, further wherein the divided clock signal has a same phase as the clock signal before entry into the low-power mode; wherein the receiver is configured to halt performing adaptive equalization and variable gain control in response to the transmitter entering the low-power mode; characterized in that the receiver is further configured to save variable gain control settings and equalization settings in response to the transmitter entering the low-power mode; and wherein the receiver is further configured to resume performing adaptive equalization and variable gain control, in response to the transmitter subsequently exiting the low-power mode, by applying the saved variable gain control settings and equalization settings. a transmitter coupled to a link; a receiver coupled to the link and configured to receive signals over the link from the transmitter; a transmit control module configured to cause the transmitter to enter and exit a low-power mode; and a clock module coupled to the transmitter and configured to provide a clock signal to the transmitter, wherein the clock module is further configured to provide the clock signal as a divided clock signal to the transmitter when the transmitter is in the low-power mode, further wherein the divided clock signal has a same phase as the clock signal before entry into the low-power mode; wherein the receiver is configured to halt performing adaptive equalization and variable gain control in response to the transmitter entering the low-power mode; characterized in that the receiver is further configured to save variable gain control settings and equalization settings in response to the transmitter entering the low-power mode; and wherein the receiver is further configured to resume performing adaptive equalization and variable gain control, in response to the transmitter subsequently exiting the low-power mode, by applying the saved variable gain control settings and equalization settings.
A non-aqueous electrolyte solution for a secondary battery, comprising a boron compound represented by the following Formula: wherein, in Formula, R represents an alkyl group having from 1 to 12 carbon atoms, an alkenyl group having from 2 to 12 carbon atoms, or a group represented by Formula: wherein, in Formula, each of R 1 to R 3 independently represents a hydrogen atom, a halogen atom, an alkyl group having from 1 to 12 carbon atoms, an alkenyl group having from 2 to 12 carbon atoms, or an aryl group having from 6 to 12 carbon atoms, and * represents a bonding site with an oxygen atom in Formula.
A compound of formula wherein R 1 is selected from H, a C 1 -C 6 alkyl group or a C 1 -C 6 alkoxy group, R 2 is an amino acid side chain of a basic amino acid, R 3 is an arylC 1 -C 6 alkyl group or a heteroarylC 1 -C 6 alkyl group, R 4 and R 5 are, independently of each other H, an arylC 1 -C 6 alkyl group or a C 1 -C 10 alkyl group, wherein the alkyl group is optionally substituted with up to three hydroxy groups, and n is an integer selected from 0 to 3, with the proviso that if R 2 is the amino acid side chain of arginine and R 3 is (1H-indol-3-yl)methyl then if R 4 and R 5 are H and n is an integer from 0 to 3, then R 1 is not H, or if R 4 and R 5 are H and n is 0, then R 1 is not butoxy, or if R 1 and R 4 are H and n is 3, then R 5 is not methyl or ethyl, or a cosmetically acceptable salt thereof. R 1 is selected from H, a C 1 -C 6 alkyl group or a C 1 -C 6 alkoxy group, R 2 is an amino acid side chain of a basic amino acid, R 3 is an arylC 1 -C 6 alkyl group or a heteroarylC 1 -C 6 alkyl group, R 4 and R 5 are, independently of each other H, an arylC 1 -C 6 alkyl group or a C 1 -C 10 alkyl group, wherein the alkyl group is optionally substituted with up to three hydroxy groups, and n is an integer selected from 0 to 3, if R 4 and R 5 are H and n is an integer from 0 to 3, then R 1 is not H, or if R 4 and R 5 are H and n is 0, then R 1 is not butoxy, or if R 1 and R 4 are H and n is 3, then R 5 is not methyl or ethyl,
Heating device having at least one heating unit, a heat transferring element, a controller, a casing and an operating unit, wherein the operating unit comprises a touch-screen, characterized in that the operating unit can be removed and is designed to establish a connection with the controller by means of a bus system, and wherein the operating unit is designed to separate the connection between the operating unit and the controller whilst removing the operating unit and to replace the said connection by means of a wireless connection.
A box forming machine comprising: a converter assembly that is configured to perform one or more conversion functions on a sheet material to convert the sheet material to a box template; and an infeed changer that is configured to direct different sheet materials into the converter assembly, the infeed changer comprising: at least one upper set of guide channels configured to direct a first sheet material into the infeed changer; at least one lower set of guide channels configured to direct a second sheet material into the infeed changer; and an active roller that is configured to draw the first or second sheet material into the infeed changer, characterized in that the active roller is configured to rotate in a first direction and in a second direction, wherein rotation of the active roller in the first direction draws the first sheet material into the infeed changer and rotation of the active roller in the second direction draws the second sheet material into the infeed changer. a converter assembly that is configured to perform one or more conversion functions on a sheet material to convert the sheet material to a box template; and an infeed changer that is configured to direct different sheet materials into the converter assembly, the infeed changer comprising: at least one upper set of guide channels configured to direct a first sheet material into the infeed changer; at least one lower set of guide channels configured to direct a second sheet material into the infeed changer; and an active roller that is configured to draw the first or second sheet material into the infeed changer, characterized in that the active roller is configured to rotate in a first direction and at least one upper set of guide channels configured to direct a first sheet material into the infeed changer; at least one lower set of guide channels configured to direct a second sheet material into the infeed changer; and an active roller that is configured to draw the first or second sheet material into the infeed changer, characterized in that the active roller is configured to rotate in a first direction and in a second direction, wherein rotation of the active roller in the first direction draws the first sheet material into the infeed changer and rotation of the active roller in the second direction draws the second sheet material into the infeed changer.
A hole-forming and thread-forming screw for directly screwing components (210, 220) together, comprising a head and a shank integrally formed on the head, the shank comprising a self-tapping thread section, a hole-forming section provided in front of the thread section for flow drilling, and a rounded or flattened screw tip, characterized in that the shank comprises at least one cutting edge having a material removal function, which is disposed substantially in front of the self-tapping thread section on the hole-forming section and does not extend to the screw tip, so that the screw tip is free of a cutting edge, this cutting edge furthermore being constructed so as to enable the cutting of a through hole during a rotation of the screw in a direction of rotation and to allow flow drilling during a rotation of the screw in the opposite direction of rotation, whereby the cutting edge permits on the one hand the introduction of a through hole in at least one of the components, without, on the other hand, impairing the flow drilling in another component.
A centraliser for centralising a tubular in a conduit, the centraliser comprising: a body comprising an upper body portion and a lower body portion; a plurality of arms linking the upper body portion to the lower body portion; and a plurality of upper body portion fingers circumferentially disposed between the arms, wherein the upper and lower body portions, the arms and the fingers are arranged such that relative movement of the upper and lower body portions towards each other causes the arms to buckle radially outwards into a set configuration and distal ends of said fingers to deflect radially outwards about a hinge. a body comprising an upper body portion and a lower body portion; a plurality of arms linking the upper body portion to the lower body portion; and a plurality of upper body portion fingers circumferentially disposed between the arms, wherein the upper and lower body portions, the arms and the fingers are arranged such that relative movement of the upper and lower body portions towards each other causes the arms to buckle radially outwards into a set configuration and distal ends of said fingers to deflect radially outwards about a hinge.
An electrical connector comprising: a housing; and a plurality of electrical contacts connected to the housing, where each of the contacts comprises: a first portion comprising a plurality of cantilevered contact arms (22, 24) configured to receive a male contact of a mating electrical connector therebetween, and a retention feature assisting in locating the contact in a contact receiving area of the housing where the retention feature is the widest portion of the contact and extends past opposite sides of the contact proximate the cantilevered contact arms, and a first surface mount solder tail, characterized in that the first surface mount solder tail is attached to the first portion at a 180 degree bend. a housing; and a plurality of electrical contacts connected to the housing, where each of the contacts comprises: a first portion comprising a plurality of cantilevered contact arms (22, 24) configured to receive a male contact of a mating electrical connector therebetween, and a retention feature assisting in locating the contact in a contact receiving area of the housing where the retention feature is the widest portion of the contact and extends past opposite sides of the contact proximate the cantilevered contact arms, and a first surface mount solder tail, characterized in that the first surface mount solder tail is attached to the first portion at a 180 degree bend. a first portion comprising a plurality of cantilevered contact arms (22, 24) configured to receive a male contact of a mating electrical connector therebetween, and a retention feature assisting in locating the contact in a contact receiving area of the housing where the retention feature is the widest portion of the contact and extends past opposite sides of the contact proximate the cantilevered contact arms, and a first surface mount solder tail, characterized in that the first surface mount solder tail is attached to the first portion at a 180 degree bend.
Drawing unit for drawing at least one long metal product, configured to make said at least one long metal product advance along a nominal axis of feed and provided with at least a first motorized roll and with at least two second rolls operating at the periphery of said first roll and defining, with the latter, respective passage gaps, wherein said at least two second rolls are located one on one side and the other on the other side of the axis orthogonal to the nominal axis of feed that passes through the center of rotation of the first roll, wherein said second rolls are associated to movement members to move said second rolls in a parallel form with respect to each other and in a direction substantially orthogonal to said nominal axis of feed in order to adjust said passage gaps, said passage gaps having, during use, along the straight line that joins the center of said first roll with the center of the respective second roll, an amplitude that is bigger in size than the nominal diameter of said metal product, wherein each of said second rolls defines a respective lying plane (β) disposed substantially orthogonal to the nominal axis of feed of the metal product and on which the axis of rotation of the second roll lies, characterized in that at least two of said second rolls are disposed so that they have the respective lying planes (β) intersecting the bulk of their respective first roll.
DC-DC converter, comprising: a first DC voltage gate; a second DC voltage gate; and a storage choke coupled between the first DC voltage gate and the second DC voltage gate by means of electric switching elements (108 1:108 n); wherein the DC-DC converter is configured such that a direction of a current flow ( i L) through the storage choke is inverted at least once during a switching period of the electric switching elements (108 1 to 108 4); and wherein the DC-DC converter is configured to track or readjust a switching frequency of the electric switching elements (108 1:108 n) in case of a change of operating parameters of the DC-DC converter such that a change of direction of the current flow ( i L) through the storage choke during a switching period of the electric switching elements (108 1:108 n) is ensured; wherein operating parameters of the DC-DC converter can be voltages and/or currents at terminal pairs of the first and/or second DC voltage gate (102;104). a first DC voltage gate; a second DC voltage gate; and a storage choke coupled between the first DC voltage gate and the second DC voltage gate by means of electric switching elements (108 1:108 n); wherein the DC-DC converter is configured such that a direction of a current flow ( i L) through the storage choke is inverted at least once during a switching period of the electric switching elements (108 1 to 108 4); and wherein the DC-DC converter is configured to track or readjust a switching frequency of the electric switching elements (108 1:108 n) in case of a change of operating parameters of the DC-DC converter such that a change of direction of the current flow ( i L) through the storage choke during a switching period of the electric switching elements (108 1:108 n) is ensured; wherein operating parameters of the DC-DC converter can be voltages and/or currents at terminal pairs of the first and/or second DC voltage gate (102;104).
A method of operating a network entity providing a network service of a cellular communication network covering a geographical area for a plurality of mobile terminals, the method comprising: - defining a grid covering at least a part of the geographical area with grid fields (91, 92), framed by grid lines and spaced by a grid spacing (901, 902); - receiving, from at least one of the plurality of mobile terminals a location message, the location message comprising information associated with a current location of the at least one of the plurality of mobile terminals, - providing, in response to the received location message, to the at least one of the plurality of mobile terminals grid information (53, 53') associated with the grid, the grid information including a current grid spacing, - receiving, at the network entity, crossing information from the at least one of the plurality of mobile terminals, when the at least one of the plurality of mobile terminals enters a new grid field, - keeping grid field information for at least one grid field comprising identification information of the at least one of the plurality of mobile terminals when inside the one grid field based on the received crossing information, - transmitting a grid information update to the at least one of the plurality of mobile terminals only when a grid spacing has changed for the at least one of the plurality of mobile terminals in the new grid field. - defining a grid covering at least a part of the geographical area with grid fields (91, 92), framed by grid lines and spaced by a grid spacing (901, 902); - receiving, from at least one of the plurality of mobile terminals a location message, the location message comprising information associated with a current location of the at least one of the plurality of mobile terminals, - providing, in response to the received location message, to the at least one of the plurality of mobile terminals grid information (53, 53') associated with the grid, the grid information including a current grid spacing, - receiving, at the network entity, crossing information from the at least one of the plurality of mobile terminals, when the at least one of the plurality of mobile terminals enters a new grid field, - keeping grid field information for at least one grid field comprising identification information of the at least one of the plurality of mobile terminals when inside the one grid field based on the received crossing information, - transmitting a grid information update to the at least one of the plurality of mobile terminals only when a grid spacing has changed for the at least one of the plurality of mobile terminals in the new grid field.