mhurhangee/patent-ind-claim-en huggingface dataset:
A method of reducing signaling during link setup in a wireless communication system performed by a wireless device , the method comprising: receiving , at the wireless device, at least two different access request messages over a period of time, each for establishing a link with the wireless device; determining a period of time for transmitting access response messages in response to the received access request messages by: identifying a number of pending access response messages and an average transmission time, multiplying the number of pending access response messages by the average transmission time; reserving a period of transmission time on a channel for transmitting the access response messages for establishing the link, the reservation based at least in part on the determined period of time; and transmitting the access response messages during the reserved period of transmission time. receiving , at the wireless device, at least two different access request messages over a period of time, each for establishing a link with the wireless device; determining a period of time for transmitting access response messages in response to the received access request messages by: identifying a number of pending access response messages and an average transmission time, multiplying the number of pending access response messages by the average transmission time; reserving a period of transmission time on a channel for transmitting the access response messages for establishing the link, the reservation based at least in part on the determined period of time; and transmitting the access response messages during the reserved period of transmission time. identifying a number of pending access response messages and an average transmission time, multiplying the number of pending access response messages by the average transmission time; reserving a period of transmission time on a channel for transmitting the access response messages for establishing the link, the reservation based at least in part on the determined period of time; and transmitting the access response messages during the reserved period of transmission time.
Vacuum cleaner nozzle comprising a base provided with a lower face and a suction cavity opening to the lower face , at least one brush (13.1, 13.2, 13.3), a connecting sleeve configured to fluidically communicate with the suction cavity , and a fork which is arranged between the base and the connecting sleeve and which is mounted in pivot connections of transverse pivot axes (X1, X2) opposite the base and the connecting sleeve , said vacuum cleaner nozzle comprising a brush actuation mechanism comprising a lever configured to occupy at least one first lever position, a second lever position and a third lever position, the brush actuation mechanism being configured to: - when the lever is moved in the first lever position, enable the pivoting of the fork with respect to the base and position the at least one brush (13.1, 13.2, 13.3) in a lowered position, wherein the at least one brush projects from the lower face , - when the lever is moved in the second lever position, enable the pivoting of the fork with respect to the base and position the at least one brush (13.1, 13.2, 13.3) in a raised position, wherein the at least one brush is set back from the lower face , - when the lever is moved in the third lever position, block the pivoting of the fork with respect to the base and hold the at least one brush (13.1, 13.2, 13.3) in the raised position, said brush actuation mechanism also comprising a lever indexing system configured to hold the lever in at least the first, the second and the third lever positions, characterised in that the brush actuation mechanism comprises, in addition to the lever indexing system , a locking device comprising a bolt which is movable between a first bolt position, wherein the bolt blocks the pivoting of the fork opposite the base and a second bolt position, wherein the bolt enables the pivoting of the fork with respect to the base . - when the lever is moved in the first lever position, enable the pivoting of the fork with respect to the base and position the at least one brush (13.1, 13.2, 13.3) in a lowered position, wherein the at least one brush projects from the lower face , - when the lever is moved in the second lever position, enable the pivoting of the fork with respect to the base and position the at least one brush (13.1, 13.2, 13.3) in a raised position, wherein the at least one brush is set back from the lower face , - when the lever is moved in the third lever position, block the pivoting of the fork with respect to the base and hold the at least one brush (13.1, 13.2, 13.3) in the raised position,
A band for transcutaneously delivering electrical nerve stimulation to a target nerve, the band having an outer-facing surface and a skin-contacting surface , the band characterised by : a tab located at a first end of the band ; an anode disposed on the outer-facing surface and located at a second end of the band; a cathode disposed on the outer-facing surface between the tab and the anode ; and a compression bead located on the outer facing surface between the tab and the cathode . a tab located at a first end of the band ; an anode disposed on the outer-facing surface and located at a second end of the band; a cathode disposed on the outer-facing surface between the tab and the anode ; and a compression bead located on the outer facing surface between the tab and the cathode .
A catalyst for catalytic cracking of a hydrocarbon oil, the catalyst comprising: a granulated catalyst A that comprises 20 to 50 mass% of a zeolite having a sodalite cage structure and that further comprises 10 to 30 mass% on a SiO 2 basis of silicon derived from a silica sol, 0.1 to 21 mass% on an Al 2 O 3 ·3P 2 O 5 basis of phosphorus and aluminum derived from mono aluminum phosphate, 5 to 65 mass% of a clay mineral, and 0 to 10 mass% on an oxide basis of a rare-earth metal; and, in addition to the granulated catalyst A, a granulated catalyst B that comprises 1 to 70 mass% of a pentasil-type zeolite, the content of the granulated catalyst A and the content of the granulated catalyst B in the catalyst being 90 to 99.9 mass% and 0.1 to 10 mass%, respectively, and the mass ratio of the mass on an Al 2 O 3 ·3P 2 O 5 basis of phosphorus and aluminum derived from mono aluminum phosphate included in the granulated catalyst A to the mass of the pentasil-type zeolite included in the granulated catalyst B being 0.015 to 3000. a granulated catalyst A that comprises 20 to 50 mass% of a zeolite having a sodalite cage structure and that further comprises 10 to 30 mass% on a SiO 2 basis of silicon derived from a silica sol, 0.1 to 21 mass% on an Al 2 O 3 ·3P 2 O 5 basis of phosphorus and aluminum derived from mono aluminum phosphate, 5 to 65 mass% of a clay mineral, and 0 to 10 mass% on an oxide basis of a rare-earth metal; and, in addition to the granulated catalyst A, a granulated catalyst B that comprises 1 to 70 mass% of a pentasil-type zeolite, the content of the granulated catalyst A and the content of the granulated catalyst B in the catalyst being 90 to 99.9 mass% and 0.1 to 10 mass%, respectively, and the mass ratio of the mass on an Al 2 O 3 ·3P 2 O 5 basis of phosphorus and aluminum derived from mono aluminum phosphate included in the granulated catalyst A to the mass of the pentasil-type zeolite included in the granulated catalyst B being 0.015 to 3000.
Core layer, which comprises at least: a layer comprising wave-shaped wooden elements arranged one above the other, the wooden elements extending in one direction; wherein the wave-shaped wooden elements are arranged in the layer in an oriented manner such that wave troughs of wooden elements lying one above the other interlock, or that wave crests of wooden elements lying one above the other interlock, or that wave troughs of wooden elements lying one above the other interlock and wave crests of wooden elements lying one above the other interlock; and wherein at least a part of the wooden elements in the layer is arranged in such a manner that these wooden elements form cavities between them. a layer comprising wave-shaped wooden elements arranged one above the other, the wooden elements extending in one direction; wherein the wave-shaped wooden elements are arranged in the layer in an oriented manner such that wave troughs of wooden elements lying one above the other interlock, or that wave crests of wooden elements lying one above the other interlock, or that wave troughs of wooden elements lying one above the other interlock and wave crests of wooden elements lying one above the other interlock; and wherein at least a part of the wooden elements in the layer is arranged in such a manner that these wooden elements form cavities between them.
A fiber composite comprising at least 60 wt. %, preferably 60 wt. % to 80 wt.% of a fiber material based on total weight of the composite and a high density polyethylene (HDPE) resin composition comprising a HDPE polymer and a metallocene polyethylene wax, wherein the HDPE polymer has a density of 0.925 g/cm 3 to 0.975 g/cm 3 measured according to ASTM D 1505; wherein the HDPE resin composition comprises 50 wt. % to 99 wt. % of the HDPE polymer and 0.01 wt. % to 10 wt. % of the metallocene polyethylene wax, based on total weight of the HDPE resin composition.
Method for communication, in a telecommunication network, between a caller entity (EN, W2) and an instance of an application (W1) downloaded onto a user terminal (TA) and connected to a connection server (SC1) of said network, characterized in that it comprises the following steps, implemented in an entity (EN, W2, SV1) of said network: - obtaining (E16, E72, E142, E214), on the basis of an identifier (IA, NTA) of a destination user (A), an instance identifier (RW1, RW3) of an application instance, said instance identifier having been determined and stored, in association with said identifier of said destination user, in a phase of connecting said application instance to said connection server (SC1) and said instance identifier comprising a first identifier (ID1, ID5) and a second identifier (ID2, ID6), the second identifier (ID2, ID6) being a pointer to a server, called the host server (SC1, SH), able to connect to said network, the first identifier (ID1, ID3) allowing the host server to identifier the connection server if the host server is different from the connection server and allowing the connection server to identify the application instance among the application instances connected to the connection server; - transmitting (E18, E74, E144, E216) to said host server, using the second identifier, a notification (NF1, NF2, NF3, NF4) containing said instance identifier, said host server being configured to retransmit said notification to the connection server if the host server is different from the connection server, the connection server being able to identify said application instance (W1) by means of said obtained instance identifier, and to transfer said notification to the identified application instance. - obtaining (E16, E72, E142, E214), on the basis of an identifier (IA, NTA) of a destination user (A), an instance identifier (RW1, RW3) of an application instance, said instance identifier having been determined and stored, in association with said identifier of said destination user, in a phase of connecting said application instance to said connection server (SC1) and said instance identifier comprising a first identifier (ID1, ID5) and a second identifier (ID2, ID6), the second identifier (ID2, ID6) being a pointer to a server, called the host server (SC1, SH), able to connect to said network, the first identifier (ID1, ID3) allowing the host server to identifier the connection server if the host server is different from the connection server and allowing the connection server to identify the application instance among the application instances connected to the connection server; - transmitting (E18, E74, E144, E216) to said host server, using the second identifier, a notification (NF1, NF2, NF3, NF4) containing said instance identifier, said host server being configured to retransmit said notification to the connection server if the host server is different from the connection server, the connection server being able to identify said application instance (W1) by means of said obtained instance identifier, and to transfer said notification to the identified application instance.
A display device comprising: a plurality of first data lines (DL1) extending in a second direction (DR2) intersecting a first direction (DR1); a plurality of second data lines (DL2) extending in the second direction (DR2) and are spaced apart from the first data lines (DL1); a plurality of data connection lines (DCL) connected to the first data lines (DL1), respectively; a plurality of vertical dummy patterns (VDP) spaced apart from the data connection lines (DCL) and extending in the second direction (DR2); and a plurality of horizontal power supply lines (HPL1, HPL2) in a display area (DA) and extending in the first direction (DR1) and configured to receive a power supply voltage, wherein a first separation portion (SU1) by which any one data connection line (DCL) among the data connection lines (DCL) is spaced apart from any one vertical dummy pattern (VDP) among the vertical dummy patterns (VDP) overlaps any one horizontal power supply line (HPL1, HPL2) among the horizontal power supply lines (HPL1, HPL2), wherein a second separation portion (SU2) by which another data connection line (DCL) among the data connection lines (DCL) is spaced apart from another vertical dummy pattern (VDP) among the vertical dummy patterns (VDP) does not overlap the horizontal power supply lines (HPL1, HPL2). a plurality of first data lines (DL1) extending in a second direction (DR2) intersecting a first direction (DR1); a plurality of second data lines (DL2) extending in the second direction (DR2) and are spaced apart from the first data lines (DL1); a plurality of data connection lines (DCL) connected to the first data lines (DL1), respectively; a plurality of vertical dummy patterns (VDP) spaced apart from the data connection lines (DCL) and extending in the second direction (DR2); and a plurality of horizontal power supply lines (HPL1, HPL2) in a display area (DA) and extending in the first direction (DR1) and configured to receive a power supply voltage, wherein a first separation portion (SU1) by which any one data connection line (DCL) among the data connection lines (DCL) is spaced apart from any one vertical dummy pattern (VDP) among the vertical dummy patterns (VDP) overlaps any one horizontal power supply line (HPL1, HPL2) among the horizontal power supply lines (HPL1, HPL2), wherein a second separation portion (SU2) by which another data connection line (DCL) among the data connection lines (DCL) is spaced apart from another vertical dummy pattern (VDP) among the vertical dummy patterns (VDP) does not overlap the horizontal power supply lines (HPL1, HPL2).
A linear actuator comprising: a casing that contains a moveable shaft that is moved by a motor in response to a drive signal and is coupled to an encoder that determines movement of the shaft and forms part of a control loop that adjusts the drive signal so as to ensure accurate positioning of the shaft; a temperature sensor mounted in association with the shaft for producing a temperature signal indicative of instantaneously measured temperature of the shaft; and a temperature compensator responsive to the measured temperature for generating a negative or positive offset for correcting the drive signal so as to move the shaft to a position that is corrected for instantaneous expansion or contraction of the shaft owing to departures of the shaft's actual temperature from a known baseline temperature; the motor advances the shaft forward or backward and is configured for coupling to a driven mechanism that is external to the actuator; characterized in that : the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset. a casing that contains a moveable shaft that is moved by a motor in response to a drive signal and is coupled to an encoder that determines movement of the shaft and forms part of a control loop that adjusts the drive signal so as to ensure accurate positioning of the shaft; a temperature sensor mounted in association with the shaft for producing a temperature signal indicative of instantaneously measured temperature of the shaft; and a temperature compensator responsive to the measured temperature for generating a negative or positive offset for correcting the drive signal so as to move the shaft to a position that is corrected for instantaneous expansion or contraction of the shaft owing to departures of the shaft's actual temperature from a known baseline temperature; the motor advances the shaft forward or backward and is configured for coupling to a driven mechanism that is external to the actuator; characterized in that : the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset. the encoder is a linear encoder that includes a reading head and scale and determines an actual instantaneous position of the shaft; the shaft is anchored at one end to the reading head; and the temperature compensator is responsive to a known geometry of the shaft for generating said offset.
A system for generating a frame for display on a see-through display , the frame comprising a plurality of pixels arranged in a plurality of pixel rows, wherein at least a first group of the pixels represents a first element displayed relative to a first coordinate system and a second group of the pixels represents a second element displayed relative to a second coordinate system other than the first coordinate system, wherein a time difference exists between a first time of displaying a reference pixel row of the pixel rows and a second time of displaying a given pixel row of the pixel rows, wherein the given pixel row is any pixel row of the pixel rows subsequent to the reference pixel row, and wherein a first pose of the see-through display at the first time is different than a second pose of said see-through display at the second time, thereby causing a rolling display effect, the system comprising at least two pose sensors configured to obtain first information relative to said first pose and second information relative to said second pose, with respect to said first coordinate system and said second coordinate system, and a processing resource , which comprises: a pose estimator configured to determine, by using said first information and said second information, a first relative spatial movement of the see-through display with respect to the first coordinate system and a second relative spatial movement of the see-through display with respect to the second coordinate system; and a pixel adjuster configured to generate the frame by adjusting a first position of those pixels in the first group that are displayed at the given pixel row to at least partially compensate for the first relative spatial movement and adjusting a second position of those pixels in the second group that are displayed at the given pixel row to at least partially compensate for the second relative spatial movement, thereby at least reducing the rolling display effect; the system further comprising a projector and a projection surface , wherein the projection surface is the see-through display and the projector is configured to display the frame on the see-through display . a pose estimator configured to determine, by using said first information and said second information, a first relative spatial movement of the see-through display with respect to the first coordinate system and a second relative spatial movement of the see-through display with respect to the second coordinate system; and a pixel adjuster configured to generate the frame by adjusting a first position of those pixels in the first group that are displayed at the given pixel row to at least partially compensate for the first relative spatial movement and adjusting a second position of those pixels in the second group that are displayed at the given pixel row to at least partially compensate for the second relative spatial movement, thereby at least reducing the rolling display effect; the system further comprising a projector and a projection surface , wherein the projection surface is the see-through display and the projector is configured to display the frame on the see-through display .
Battery having a battery housing that has a cell space or a plurality of cell spaces that are separated from one another by intermediate walls , wherein in each case at least one positive and one negative electrode , separated from one another by at least one separator , and liquid electrolyte are provided in one or more of the cell spaces , and a wall element is furthermore in each case provided in one or more of the cell spaces and divides the respective cell space into at least two volume spaces that communicate with one another, wherein, in the lower region of the volume spaces , a communicating connection is provided between the volume spaces for the liquid electrolyte and, in the upper region of the volume spaces , a pressure equalization connection is provided between the volume spaces in order to ensure the same air pressure in the volume spaces that communicate with one another, wherein the wall element is designed as a separate component able to be inserted into a cell space and that has a region formed as an insertion bevel in the wall section that is in the leading position when the wall element is inserted, in which region a wall section, arranged on the end in the leading position during the insertion, of the wall element runs oblique to the electrodes and separators of the cell space , wherein one or more openings are provided in the lower region of the wall element , through which openings the electrolyte is able to flow back and forth between the two volume spaces that communicate with one another; and/or wherein the wall section having the insertion bevel has one or more openings through which the electrolyte is able to flow back and forth between the two volume spaces that communicate with one another; and wherein one, several or all of the openings are formed as perforations in the wall element that are surrounded by the material of the wall element .