mhurhangee/patent-ind-claim-en huggingface dataset:
Method for configuring identical network components (23-26) which are connected in each case via a network cable (E1-E4) to a physical port (P1-P4) of a network switch , wherein at least one further network station is connected to the network switch , wherein configuration messages are transmitted by the further network station to the network components (23-26), wherein a multicast destination address is used for the transmission of a configuration message and the network components (23-26) are preconfigured in such a way that they respond to messages which are addressed to one of the multicast destination addresses, wherein the physical port (P1-P4) of the network switch to which the network component (23-26) is connected is communicated to the respective network component (23-26) through the configuration message having a configuration number or the configuration details and that the network component (23-26) then performs a reconfiguration in respect of its function in the network according to the connection to the physical port (P1-P4), wherein a variant of the Ethernet standard family is used as the network technology to connect the network components (23-26), characterized in that IPv6 addresses or IPv4 addresses from a predefined subnetwork address range are used for the multicast destination addressing and the predefined subnetwork address range for the multicast destination addresses used for the configuration originates from the multicast address range permitted for IPv6 or IPv4, and in that only one defined physical port (P1-P4) is recorded in an assignment table for each multicast destination address from the predefined subnetwork address range in order to forward the message which is addressed to the respective multicast destination address, such that individualization of one of the network components (23-26) is respectively carried out for each multicast destination address in a multicast group with only a single member.
A vehicle rear seat frame for a rear seat disposed in a rear section of a vehicle (V) comprising a seat cushion frame and a seat back frame being foldable about an axis along a lateral direction of the vehicle so as to be overlapped with each other, characterized in that the seat cushion frame comprises a seat cushion side frame at each lateral end of the seat cushion frame, the seat cushion side frame extending in a longitudinal direction of the vehicle when folded, and the seat back frame comprises a seat back side frame at each lateral end of the seat back frame, the seat back side frame extending in the longitudinal direction when folded, wherein the seat cushion side frame comprises a first weak portion (A1 to A3, B1 to B3) having less longitudinal strength than other portions thereof, and the seat back side frame comprises a second weak portion (C1 to C3, D1 to D3) having less longitudinal strength than other portions thereof.
Measuring apparatus for in-vehicle weight measurement of a vehicle, comprising a spring lug having a first lug end for connection to a structural element of the vehicle and a second lug end for connection to a leaf spring element of a leaf spring of the vehicle, wherein the spring lug has a sensor element , which is arranged between the first lug end and the second lug end , for measuring a deformation of the spring lug , characterized in that the sensor element has a sensor body with clamping lugs which receive the spring lug between them, and in that the sensor body is connected to the spring lug by means of clamping.
A method performed by a terminal using a transmission control protocol, TCP, in a wireless communication system, the method comprising: receiving at least one data segment from a sender ; transmitting at least one acknowledgment, ACK, segment corresponding to the at least one data segment to the sender ; determining a number of optimistic ACK segments corresponding to data segments to be received; transmitting the determined number of optimistic ACK segments to the sender ; and transmitting a retransmission request message for a non-received data segment to the sender , in case that at least one data segment among the data segments corresponding to the determined number of the optimistic ACK segments is not received within a second predetermined time, wherein the determined number of optimistic ACK segments is equal to a number of data segments received in a current round trip time, RTT, round, wherein the transmitting the determined number of optimistic ACK segments includes, in case of a slow start state, transmitting the determined number of the optimistic ACK segments to the sender at a first predetermined time, and wherein the transmitting the determined number of optimistic ACK segments includes transmitting the determined number of the optimistic ACK segments to the sender at the first predetermined time in case that a number of data segments received in the current RTT round is greater than or equal to a sum of a number of data segments received in a previous RTT round and a number of ACK segments transmitted in the previous RTT round. receiving at least one data segment from a sender ; transmitting at least one acknowledgment, ACK, segment corresponding to the at least one data segment to the sender ; determining a number of optimistic ACK segments corresponding to data segments to be received; transmitting the determined number of optimistic ACK segments to the sender ; and transmitting a retransmission request message for a non-received data segment to the sender , in case that at least one data segment among the data segments corresponding to the determined number of the optimistic ACK segments is not received within a second predetermined time, wherein the determined number of optimistic ACK segments is equal to a number of data segments received in a current round trip time, RTT, round, wherein the transmitting the determined number of optimistic ACK segments includes, in case of a slow start state, transmitting the determined number of the optimistic ACK segments to the sender at a first predetermined time, and wherein the transmitting the determined number of optimistic ACK segments includes transmitting the determined number of the optimistic ACK segments to the sender at the first predetermined time in case that a number of data segments received in the current RTT round is greater than or equal to a sum of a number of data segments received in a previous RTT round and a number of ACK segments transmitted in the previous RTT round.
A compound having the structural formula (IIIa), (IIIb), or (IIIc): wherein, Base is selected from adenosine, cytidine, guanosine, thymidine, and uridine; R is selected from H and OH; n is from 1 to 4; Linker is a linker comprising a covalently bonded chain of 2 to 100 atoms; and Tag is a molecular moiety capable of producing a detectable signal. Base is selected from adenosine, cytidine, guanosine, thymidine, and uridine; R is selected from H and OH; n is from 1 to 4; Linker is a linker comprising a covalently bonded chain of 2 to 100 atoms; and Tag is a molecular moiety capable of producing a detectable signal.
A method for producing a guide rail which is provided for guiding a mobile milling head or cutting tool during the machining of prefabricated prosthetic teeth , wherein the method is characterized by the following steps: A) Generating or Providing a virtual 3D model of a dental prosthesis with a virtual model of a prosthesis base as a gum imitation and with at least one virtual model of at least one machined prosthetic tooth to be arranged in the prosthesis base to reproduce at least one tooth; B) Calculating a volume to be removed from at least one prefabricated prosthetic tooth by comparing the at least one virtual model of the at least one machined prosthetic tooth with at least one virtual model of the at least one prefabricated prosthetic tooth using a CAD method; C) Generating a virtual model of a guide rail using a CAD method, which guide rail is fixed or fixable to a mount for fastening the at least one prefabricated prosthetic tooth , wherein the guide rail is modeled such and the mount is positioned relative to the guide rail such and the at least one prefabricated prosthetic tooth is fastened in the mount in an orientation such that the guide rail enables guidance of at least one milling head and/or at least one cutting tool of known dimensions, in such a manner that the volume to be removed from the at least one prefabricated prosthetic tooth is traversed with the at least one milling head and/or the volume to be removed from the at least one prefabricated prosthetic tooth is cut away with the at least one cutting tool; and D) Producing a physical guide rail on the basis of the virtual model of the guide rail using a CAM method. A) Generating or Providing a virtual 3D model of a dental prosthesis with a virtual model of a prosthesis base as a gum imitation and with at least one virtual model of at least one machined prosthetic tooth to be arranged in the prosthesis base to reproduce at least one tooth; B) Calculating a volume to be removed from at least one prefabricated prosthetic tooth by comparing the at least one virtual model of the at least one machined prosthetic tooth with at least one virtual model of the at least one prefabricated prosthetic tooth using a CAD method; C) Generating a virtual model of a guide rail using a CAD method, which guide rail is fixed or fixable to a mount for fastening the at least one prefabricated prosthetic tooth , wherein the guide rail is modeled such and the mount is positioned relative to the guide rail such and the at least one prefabricated prosthetic tooth is fastened in the mount in an orientation such that the guide rail enables guidance of at least one milling head and/or at least one cutting tool of known dimensions, in such a manner that the volume to be removed from the at least one prefabricated prosthetic tooth is traversed with the at least one milling head and/or the volume to be removed from the at least one prefabricated prosthetic tooth is cut away with the at least one cutting tool; and D) Producing a physical guide rail on the basis of the virtual model of the guide rail using a CAM method.
A sensing system (S) that detects touch, comprising: - at least an intermediate layer ; - at least an upper layer located on the intermediate layer ; - at least one light source located under the intermediate layer ; - at least one image sensor located under the intermediate layer ; - at least a first fiber optic bundle which comprises a plurality of fiber optic cables positioned such that a tips of which is facing to the light source and other tips of which is facing to the said intermediate layer , and which transmits the light obtained from the light source to the upper layer located on the intermediate layer ; - at least a second fiber optic bundle which comprises a plurality of fiber optic cables, a tips of which is paired with at least one pixel of the image sensor and other tips of which is positioned facing to the said intermediate layer , and which transmits the image of the upper layer located on the intermediate layer to the image sensor ; - at least one control unit which analyzes the image captured by the image sensor using image processing techniques so as to calculate a force applied on the intermediate layer ; and - at least a data link for data communication between the image sensor and the control unit characterized in that the said upper layer comprises a polarized film or a piezochromic material as a material that changes color with force. - at least an intermediate layer ; - at least an upper layer located on the intermediate layer ; - at least one light source located under the intermediate layer ; - at least one image sensor located under the intermediate layer ; - at least a first fiber optic bundle which comprises a plurality of fiber optic cables positioned such that a tips of which is facing to the light source and other tips of which is facing to the said intermediate layer , and which transmits the light obtained from the light source to the upper layer located on the intermediate layer ; - at least a second fiber optic bundle which comprises a plurality of fiber optic cables, a tips of which is paired with at least one pixel of the image sensor and other tips of which is positioned facing to the said intermediate layer , and which transmits the image of the upper layer located on the intermediate layer to the image sensor ; - at least one control unit which analyzes the image captured by the image sensor using image processing techniques so as to calculate a force applied on the intermediate layer ; and - at least a data link for data communication between the image sensor and the control unit
Process to prepare an electrode for an electrochemical storage device by spraying an aqueous slurry composition comprising water, xanthan gum, a source of conducting carbon particles and an active material on an electrode base to obtain a covered electrode base, wherein the slurry is obtained by one of the following slurry preparation processes (a) comprising of the following in-sequence steps wherein (ai) first solid xanthan gum is mixed with the conducting carbon particles and optionally the active material, (aii) optionally adding active material to the resulting mixture in case active material was not added or not sufficiently added in step (ai) and (aiii) adding water to the resulting mixture obtained in step (ai) or (aii) such that the content of solids in the resulting aqueous slurry is between 2 and 25 wt.%, or (b) comprising of the following in-sequence steps wherein (bi) solid xanthan gum is mixed with a carbon-based active material and (bii) adding water to the resulting mixture obtained in step (bi) such that the content of solids in the resulting aqueous slurry is between 3-12 wt.%.
A method comprising: sending , by a wireless device to an access and mobility management function, AMF, device via a base station , non-access stratum parameters comprising: a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; receiving , by the wireless device from the base station, a radio resource control, RRC, message indicating addition of a bearer for a PDU session of the Ethernet PDU session type; and sending , by the wireless device to the base station via at least one resource block of at least one cell of the base station, transport blocks comprising Ethernet frames of the bearer. sending , by a wireless device to an access and mobility management function, AMF, device via a base station , non-access stratum parameters comprising: a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; a wireless device capability parameter indicating whether the wireless device supports an Ethernet packet data unit, PDU, session type between the wireless device and a core network user plane function, and a PDU session type parameter indicating a type of a requested PDU session; receiving , by the wireless device from the base station, a radio resource control, RRC, message indicating addition of a bearer for a PDU session of the Ethernet PDU session type; and sending , by the wireless device to the base station via at least one resource block of at least one cell of the base station, transport blocks comprising Ethernet frames of the bearer.
A wireless sensor network (10; 54) comprising: a plurality of wireless sensors that sense at least one parameter and transmit sensor signals representative of the at least one parameter sensed; and a wireless data concentrator (26; 64) that receives the sensor signals and adjusts the transmission schedules of at least one of the plurality of wireless sensors based on a change in operating status of at least another one or more of the plurality of wireless sensors ; characterised in that : the wireless data concentrator (26; 64) adjusts the transmission schedule of the at least one of the plurality of wireless sensors by increasing a transmission rate of the at least one of the plurality of wireless sensors in response to the operating status of another one or more wireless sensors changing from an operative state to an inoperative state, wherein the at least one of the plurality of sensors and the other one or more wireless sensors redundantly sense at least one parameter of a same region. a plurality of wireless sensors that sense at least one parameter and transmit sensor signals representative of the at least one parameter sensed; and a wireless data concentrator (26; 64) that receives the sensor signals and adjusts the transmission schedules of at least one of the plurality of wireless sensors based on a change in operating status of at least another one or more of the plurality of wireless sensors ;
A fastening tool for a screw element having a tool mount and an associated line which exits from the center of the screw element, wherein a coupling part is provided which is configured for a shape matching engagement with the tool mount at a free end and which merges into a handle or can be coupled to a handle at the other end, the drive end , and wherein the coupling part has, at least at its free end , an inner space and/or a cutout and at least one lateral opening for the introduction and/or removal of the line ; wherein the inner space and/or the cutout and the opening extend up to the free end and are open there; wherein the free end of the coupling part is provided with projections extending in an axial direction of the coupling part and engaging into longitudinal grooves of the screw element in a shape matching manner, said longitudinal grooves forming the tool mount and being formed at an outer side of the screw element and being open in the direction facing radially outwardly, characterized in that the projections are free-standing; and in that the projections have a circular cylindrical shape.
A method for rendering graphics data, the method comprising: receiving a plurality of commands, each of the plurality of commands being associated with one of a plurality of render targets, wherein the plurality of commands are received in an initial order; determining an execution order for the plurality of commands that is different than the initial order, wherein determining the execution order comprises generating, from the plurality of received commands, a render target command list for each of the plurality of render targets, wherein generating the render target command lists comprises adding the received commands to the render target command lists according to their associated render targets until a command is identified which has a data dependency on a previous command in the initial order that is associated with a different render target; and executing the plurality of commands in the determined execution order by executing the commands in the render target command lists. receiving a plurality of commands, each of the plurality of commands being associated with one of a plurality of render targets, wherein the plurality of commands are received in an initial order; determining an execution order for the plurality of commands that is different than the initial order, wherein determining the execution order comprises generating, from the plurality of received commands, a render target command list for each of the plurality of render targets, wherein generating the render target command lists comprises adding the received commands to the render target command lists according to their associated render targets until a command is identified which has a data dependency on a previous command in the initial order that is associated with a different render target; and executing the plurality of commands in the determined execution order by executing the commands in the render target command lists.
A salt bath composition for strengthening glass articles, the salt bath composition comprising: from 90 wt.% to 99.9 wt.% of one or more alkali metal salts based on the total weight of the salt bath composition; and from 0.1 wt.% to 10 wt.% of silicic acid aggregates based on the total weight of the salt bath composition, wherein the silicic acid aggregates have an average size of from 50 μm to 200 μm. from 90 wt.% to 99.9 wt.% of one or more alkali metal salts based on the total weight of the salt bath composition; and from 0.1 wt.% to 10 wt.% of silicic acid aggregates based on the total weight of the salt bath composition, wherein the silicic acid aggregates have an average size of from 50 μm to 200 μm.
A device for embossing substrates in an embossing compound, comprising a structured stamp for embossing the structures into the embossing compound and an embossing roller for pressing the structures of the structured stamp into the embossing compound, wherein the structured stamp can be kept under a constant local extension during the embossing of and the separation from the embossing compound, characterised in that the embossing roller comprises a driver for lifting the structured stamp after the embossing.
Laser scanner for scanning a ground from a seaborne or airborne vehicle , comprising a scanning unit for emitting a scanning fan of laser beams fanned out around a scanning axis and for receiving the laser beams reflected by the ground , and an evaluation unit connected to the scanning unit for evaluating the received laser beams , characterized by a measuring unit (16; 11; 13, 25, 27; 13, 15, 27) which is configured to measure the height (a) of the vehicle above ground , and an adjusting device anchorable on the vehicle and connected to the measuring unit (16; 11; 13, 25, 27; 13, 15, 27), wherein the adjusting device is configured to pivot the scanning fan of the scanning unit with respect to the vehicle about a first adjusting axis different from the scanning axis in dependence of the measured height (a) above ground .
A method of determining a gate capacitance of a semiconductor device having a source, a drain, a gate, and a channel, the semiconductor device being arranged in a circuit further comprising an electrical resonator , wherein one of the source and the drain is connected to the electrical resonator , and the other of the source and the drain is connected to a high-impedance contact , the high-impedance contact being selected from a tunnel junction, a resistor having a resistance greater than or equal to 1 MΩ, and a transistor in an off state; the method comprising: measuring a resonance frequency of the circuit; and calculating , based on the resonance frequency, the gate capacitance. the semiconductor device being arranged in a circuit further comprising an electrical resonator , wherein one of the source and the drain is connected to the electrical resonator , and the other of the source and the drain is connected to a high-impedance contact , the high-impedance contact being selected from a tunnel junction, a resistor having a resistance greater than or equal to 1 MΩ, and a transistor in an off state; the method comprising: measuring a resonance frequency of the circuit; and calculating , based on the resonance frequency, the gate capacitance. measuring a resonance frequency of the circuit; and calculating , based on the resonance frequency, the gate capacitance.