mhurhangee/patent-ind-claim-en huggingface dataset:
A method for routing of data packets in a multi-access communication network, the method comprising: transmitting, by a network connection engine in a network server , network parameters indicative of application support capabilities of the network server to an application server , wherein the application server hosts an application; based on the network parameters, receiving a prioritized list of application parameters from the application server , for routing data packets to and from the application server , wherein, the prioritized list of application parameters indicates a list of preferential parameters, in an order of priority, that is used for routing the data packets to and from the application server ; and storing the prioritized list of application parameters to use while routing the data packets to and from the application server . transmitting, by a network connection engine in a network server , network parameters indicative of application support capabilities of the network server to an application server , wherein the application server hosts an application; based on the network parameters, receiving a prioritized list of application parameters from the application server , for routing data packets to and from the application server , wherein, the prioritized list of application parameters indicates a list of preferential parameters, in an order of priority, that is used for routing the data packets to and from the application server ; and storing the prioritized list of application parameters to use while routing the data packets to and from the application server .
A 3GPP cellular communication network comprising an apparatus for a Base Station, BS, according to claim 4 and an apparatus for a User Equipment, UE , the apparatus for the UE comprising transceiver circuitry and hardware processing circuitry, the hardware processing circuitry being configured to configure the transceiver circuitry to: transmit data to the BS (104.500) on an uplink, UL, resource; and receive an acknowledgement, ACK, or negative acknowledgment, NACK, on a physical HARQ-ACK indicator channel, PHICH, responsive to transmitting the data on the UL resource, the PHICH being mapped to a physical resource block, PRB, that is offset by a PHICH offset based on collision conditions in a cell served by the BS wherein the PHICH offset includes a group offset and a sequence offset relative to a transport block, TB, index and first PRB index of a corresponding uplink shared channel, and an additive component representing the group offset and an additive component representing the sequence offset take on different values and are values equal to 0 or 1. transmit data to the BS (104.500) on an uplink, UL, resource; and receive an acknowledgement, ACK, or negative acknowledgment, NACK, on a physical HARQ-ACK indicator channel, PHICH, responsive to transmitting the data on the UL resource, the PHICH being mapped to a physical resource block, PRB, that is offset by a PHICH offset based on collision conditions in a cell served by the BS wherein the PHICH offset includes a group offset and a sequence offset relative to a transport block, TB, index and first PRB index of a corresponding uplink shared channel, and an additive component representing the group offset and an additive component representing the sequence offset take on different values and are values equal to 0 or 1.
An aluminium or aluminium alloy fragment etching method comprising the steps of: a. providing a hydrochloric acid solution having a concentration of 1.1 to 4.2 moles of HCl per litre of water in a trough- or vat-shaped container; b. inoculating the hydrochloric acid solution by chemically dissolving a quantity of aluminium ranging from 0.5 g to 17.5 g per litre to produce an etching solution; c. adding the fragments to the etching solution immediately after the inoculation; d. etching the fragments for 0.5 to 10 minutes while circulating the etching solution with the fragments such that the fragments are entrained by the movement of the etching solution; e. stopping the etching within a few seconds by diluting the etching solution with water; f. removing the etched fragments from the etching solution; g. repeatedly rinsing the fragments with water immediately after the removal and h. rinsing the fragments with an organic desiccant. a. providing a hydrochloric acid solution having a concentration of 1.1 to 4.2 moles of HCl per litre of water in a trough- or vat-shaped container; b. inoculating the hydrochloric acid solution by chemically dissolving a quantity of aluminium ranging from 0.5 g to 17.5 g per litre to produce an etching solution; c. adding the fragments to the etching solution immediately after the inoculation; d. etching the fragments for 0.5 to 10 minutes while circulating the etching solution with the fragments such that the fragments are entrained by the movement of the etching solution; e. stopping the etching within a few seconds by diluting the etching solution with water; f. removing the etched fragments from the etching solution; g. repeatedly rinsing the fragments with water immediately after the removal and h. rinsing the fragments with an organic desiccant.
A bearing arrangement, comprising - at least two annular components which are rotatable relative to each other about an axis of rotation, wherein - a plurality of rolling elements is arranged between the annular components which supports them against each other during a rotation relative to each other, characterised in that for heating and/or cooling of at least one of the annular components a plurality of material recesses is provided in the axial direction at at least one of the annular components , which at least forms one portion of a flow channel, wherein - at the least one of the annular components (i) at least one jacket-shaped part and (ii) at least one upper end plate and/or at least one lower end plate are attached which form a fluidic boundary of the flow channel against the environment, and wherein - between the annular components and the respective endplate each perforated disks are provided which form flow chambers which fluidically connect the material recesses in the circumferential direction. - at least two annular components which are rotatable relative to each other about an axis of rotation, wherein - a plurality of rolling elements is arranged between the annular components which supports them against each other during a rotation relative to each other, characterised in that for heating and/or cooling of at least one of the annular components a plurality of material recesses is provided in the axial direction at at least one of the annular components , which at least forms one portion of a flow channel, wherein - at the least one of the annular components (i) at least one jacket-shaped part and (ii) at least one upper end plate and/or at least one lower end plate are attached which form a fluidic boundary of the flow channel against the environment, and wherein (i) at least one jacket-shaped part and (ii) at least one upper end plate and/or at least one lower end plate are attached which form a fluidic boundary of the flow channel against the environment, and wherein - between the annular components and the respective endplate each perforated disks are provided which form flow chambers which fluidically connect the material recesses in the circumferential direction.
A shock absorber , comprising: a shock absorber body ; a suspension spring provided in an outer circumference of the shock absorber body ; a spring seat installed in the outer circumference of the shock absorber body and configured to support a lower end of the suspension spring ; and a spring rubber seat interposed between the spring seat and the suspension spring and provided with a seat surface on which the suspension spring is seated, wherein the seat surface of the spring rubber seat is formed inclined so as to be higher toward a distal end (b) within a predetermined range from the distal end (b) where a spiral portion of the suspension spring becomes apart to a side where the spiral portion of the suspension spring abuts, and a concave portion surrounded by a portion abutting on the spring seat is formed on a lower side of the predetermined range in a lower part of the spring rubber seat , characterized in that the spring seat has one or more holes formed to vertically penetrate, and at least one of the holes faces the concave portion of the spring rubber seat . a shock absorber body ; a suspension spring provided in an outer circumference of the shock absorber body ; a spring seat installed in the outer circumference of the shock absorber body and configured to support a lower end of the suspension spring ; and a spring rubber seat interposed between the spring seat and the suspension spring and provided with a seat surface on which the suspension spring is seated, wherein the seat surface of the spring rubber seat is formed inclined so as to be higher toward a distal end (b) within a predetermined range from the distal end (b) where a spiral portion of the suspension spring becomes apart to a side where the spiral portion of the suspension spring abuts, and a concave portion surrounded by a portion abutting on the spring seat is formed on a lower side of the predetermined range in a lower part of the spring rubber seat , characterized in that the spring seat has one or more holes formed to vertically penetrate, and at least one of the holes faces the concave portion of the spring rubber seat .
A method for monitoring a Physical Downlink Control Channel, PDCCH, in a wireless communication system for receiving broadcast, multicast or unicast information, comprising: accessing , by one or more computer processors, a constraint for a Physical Downlink Control Channel, PDCCH, that limits mapping of decoding candidates distributed on a plurality of carriers, each of which corresponds to one or more control channel elements, CCEs, wherein each of the one or more CCEs corresponds to a set of resource elements, REs, wherein the constraint includes one or more characteristics for limiting a number of blind decoding that has to be performed to successfully receive PDCCH sent via one or more carriers, wherein at least two carriers of the plurality of carriers are distributed with decoding candidates with different characteristics to avoid the decoding candidates with different characteristics distributed on the one or more CCEs of the at least two carriers of the plurality of carriers from overlapping each other, wherein the different characteristics include one or more of: different search spaces, or different subsets of aggregation levels; monitoring , by the one or more computer processors, a reduced set of decoding candidates on the at least two carriers of the plurality of carriers in accordance with the constraint; and blind decoding , by the one or more computer processors, the reduced set of decoding candidates. accessing , by one or more computer processors, a constraint for a Physical Downlink Control Channel, PDCCH, that limits mapping of decoding candidates distributed on a plurality of carriers, each of which corresponds to one or more control channel elements, CCEs, wherein each of the one or more CCEs corresponds to a set of resource elements, REs, wherein the constraint includes one or more characteristics for limiting a number of blind decoding that has to be performed to successfully receive PDCCH sent via one or more carriers, wherein at least two carriers of the plurality of carriers are distributed with decoding candidates with different characteristics to avoid the decoding candidates with different characteristics distributed on the one or more CCEs of the at least two carriers of the plurality of carriers from overlapping each other, wherein the different characteristics include one or more of: different search spaces, or different subsets of aggregation levels; monitoring , by the one or more computer processors, a reduced set of decoding candidates on the at least two carriers of the plurality of carriers in accordance with the constraint; and blind decoding , by the one or more computer processors, the reduced set of decoding candidates.
A compound of structural Formula I: wherein R is independently selected from the group consisting of: -(CH 2 ) n -CH 3 , wherein n is 4, 5, 6, 7, 8, 9 or 10; wherein * is the point of attachment of the R group; wherein R' is independently selected from the group consisting of: wherein n is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; R" is independently selected from the group consisting of -H, -CH 3 , -NH 2 , -OH, -Cl, and -Br; R 1 is independently selected from the group consisting of -H, -Ac, -Bz, -Me, and -Et, R 2 is independently selected from the group consisting of -H, -OH, -OMe and -OEt. -(CH 2 ) n -CH 3 , wherein n is 4, 5, 6, 7, 8, 9 or 10; wherein * is the point of attachment of the R group; wherein R' is independently selected from the group consisting of: wherein n is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; R" is independently selected from the group consisting of -H, -CH 3 , -NH 2 , -OH, -Cl, and -Br; R 1 is independently selected from the group consisting of -H, -Ac, -Bz, -Me, and -Et, R 2 is independently selected from the group consisting of -H, -OH, -OMe and -OEt.
A method for determining residual carbamate compounds in elastomeric articles comprising: contacting an elastomeric article or an extract obtained from the elastomeric article with a transition metal solution; and testing the elastomeric article or the extract and transition metal solution for the propensity of the elastomeric article to stain; wherein the elastomeric article is made from a nitrile polymer, wherein the transition metal solution is a copper acetate solution, and wherein when the transition metal solution is contacted with an extract obtained from the elastomeric article, the extract is collected by contacting the elastomeric article with an acetone solution. contacting an elastomeric article or an extract obtained from the elastomeric article with a transition metal solution; and testing the elastomeric article or the extract and transition metal solution for the propensity of the elastomeric article to stain; wherein the elastomeric article is made from a nitrile polymer, wherein the transition metal solution is a copper acetate solution, and wherein when the transition metal solution is contacted with an extract obtained from the elastomeric article, the extract is collected by contacting the elastomeric article with an acetone solution.
A cell incubator comprising: a culture cell accommodating section which accommodates cells to be cultured and a culture solution; and a measuring unit accommodating section which accommodates a measuring unit that includes a light emitting section and a light receiving section , the measuring unit in which the light emitting section transmits light through the culture solution and the light receiving section receives the transmitted light, thereby measuring a condition of the culture solution, wherein a part of the culture cell accommodating section is located between the light emitting section and the light receiving section, wherein the part of the culture cell accommodating section has a shape which is located between the light emitting section and the light receiving section so that the optical axes between the light emitting section and the light receiving section intersect with the part. a culture cell accommodating section which accommodates cells to be cultured and a culture solution; and a measuring unit accommodating section which accommodates a measuring unit that includes a light emitting section and a light receiving section , the measuring unit in which the light emitting section transmits light through the culture solution and the light receiving section receives the transmitted light, thereby measuring a condition of the culture solution, wherein a part of the culture cell accommodating section is located between the light emitting section and the light receiving section, wherein the part of the culture cell accommodating section has a shape which is located between the light emitting section and the light receiving section so that the optical axes between the light emitting section and the light receiving section intersect with the part.
Wheelset for vehicles, in particular for rail vehicles, which has a first wheel , a second wheel and a wheelset shaft , wherein the wheelset shaft comprises at least a first shaft part , a second shaft part and a third shaft part , which are connected to one another, wherein of the at least first shaft part, the second shaft part and the third shaft part, at least one shaft part is embodied as a hollow shaft which can be filled with fluid and which has a corresponding interior space , or has at least one cavity which can be filled with fluid, wherein at least the first shaft part is detachably connected to the second shaft part , characterised in that at least one sealing first joint is embodied to be angled at least between the first shaft part and the first wheel or between the first shaft part and the second shaft part .
A system for exchanging data, remotely, between a reading station (ST) and a so-called main radio tag (R1), said system being such that it comprises: - a first assembly (E1) comprising a reading interface design to read stored data (D1) and writing data to the main radio tag (R1) and first communication means , - a second assembly (E2) comprising second communication means linked by a wireless link to the first communication means , and a so-called offset radio tag (R2) comprising a memory (M20) designed to store data received from the main radio tag (R1) or to be written in the main radio tag (R1) via data exchange through the first communication means and the second communication means , and being such that it is adapted for: - to receive, via the offset radio tag (R2), a write request from the reading station (ST), - transfer, via an exchange of data by the wireless link between the first communication means and the second communication means , said request to the reading interface , and, - send said request, via the reading interface , to the main radio tag (R1). - a first assembly (E1) comprising a reading interface design to read stored data (D1) and writing data to the main radio tag (R1) and first communication means , - a second assembly (E2) comprising second communication means linked by a wireless link to the first communication means , and a so-called offset radio tag (R2) comprising a memory (M20) designed to store data received from the main radio tag (R1) or to be written in the main radio tag (R1) via data exchange through the first communication means and the second communication means , - to receive, via the offset radio tag (R2), a write request from the reading station (ST), - transfer, via an exchange of data by the wireless link between the first communication means and the second communication means , said request to the reading interface , and, - send said request, via the reading interface , to the main radio tag (R1).
A system, comprising: a hearing prosthesis suite; and a data input suite configured to receive data indicative of a cognitive load of a recipient, wherein the system is configured to operate in a hearing rehabilitative exercise machine mode in which the system automatically adjusts operation of the hearing prosthesis based on data obtained by the data input suite to exercise the recipient, thereby rehabilitating the recipient, the data input suite includes a biometric suite; and the system is configured to automatically adjust operation of the hearing prosthesis when in the exercise mode based on biometric data of the recipient obtained by the biometric suite to exercise the recipient, thereby rehabilitating the recipient, wherein the biometric suite includes a module that is configured to analyze biometric signals recorded from sensors in real-time and use this information to form a mental state of the recipient with respect to his/her present cognitive load. a hearing prosthesis suite; and a data input suite configured to receive data indicative of a cognitive load of a recipient, wherein the system is configured to operate in a hearing rehabilitative exercise machine mode in which the system automatically adjusts operation of the hearing prosthesis based on data obtained by the data input suite to exercise the recipient, thereby rehabilitating the recipient, the data input suite includes a biometric suite; and the system is configured to automatically adjust operation of the hearing prosthesis when in the exercise mode based on biometric data of the recipient obtained by the biometric suite to exercise the recipient, thereby rehabilitating the recipient, wherein the biometric suite includes a module that is configured to analyze biometric signals recorded from sensors in real-time and use this information to form a mental state of the recipient with respect to his/her present cognitive load.
A multi-wall metal sheet roll forming assembly comprising an upper roller where a metal sheet strip is fed in a lengthwise manner and having a rotation axis (x) adjusted in a parallel manner to the extension axis of the metal sheet strip , and an adjacent lower roller where a processing surface , which bends the metal sheet strip during rotation, is provided between said lower roller and said upper roller , characterized in that the metal sheet roll forming assembly comprises a bearing element which holds the upper roller in a manner allowing rotation from the two mutual rotation ends , and a drive mechanism adapted to the bearing element in a manner exerting equal compression force through the mutual rotation ends towards the lower roller .