mhurhangee/ep-ind-claims huggingface dataset:
A method for enriching a Diameter signaling message, the method comprising: receiving, at a Diameter routing node, a Diameter signalling message that is associated with a mobile subscriber and includes mobile subscriber related information; querying a Diameter binding repository, DBR, using the mobile subscriber related information to select a network service node from a plurality of network service nodes configured to process the Diameter signaling message; obtaining DBR information associated with the mobile subscriber from the DBR, wherein the DBR information includes an identifier associated with the selected network service node; and modifying the Diameter signaling message to include at least a portion of the DBR information; characterised in that the selected service node is of a first Diameter service type, wherein the DBR information identifies an additional Diameter node of a second Diameter service type different from the first Diameter service type, and wherein modifying the Diameter signaling message includes modifying the message to include identifying information for the additional service node. receiving, at a Diameter routing node, a Diameter signalling message that is associated with a mobile subscriber and includes mobile subscriber related information; querying a Diameter binding repository, DBR, using the mobile subscriber related information to select a network service node from a plurality of network service nodes configured to process the Diameter signaling message; obtaining DBR information associated with the mobile subscriber from the DBR, wherein the DBR information includes an identifier associated with the selected network service node; and modifying the Diameter signaling message to include at least a portion of the DBR information;
Device comprising a wear part with a wear area; and a measuring device with at least one wear sensor, which is integrated in the wear area, for detecting material removal at the wear area; wherein the wear sensor is constructed in the form of an electrical resistance which when material removal at the wear area takes place is itself mechanically removed therewith; wherein the measuring device further comprises an evaluating device for detecting a change, particularly an increase, of the resistive impedance value of the electrical resistance in dependence on its own material removal and for making a conclusion from the recognised change in the impedance value about the amount of material removal at the wear area or about the remaining thickness of the wear area, and wherein the measuring device comprises a plurality of electrical resistances (122-k) arranged in local distribution over the wear area, wherein the individual electrical resistances are connected by, for example, cable or radio with the central evaluating device; characterised in that the measuring device comprising an electrical energy supply source, the at least one electrical resistance, the evaluating device and/or a module for preferably cable-free transfer of measurement or evaluation data is realised as a compact constructional unit on a circuitboard; and in each instance one of the electrical resistances (122-k) is arranged on the front side and rear side of the circuitboard, wherein the conductor tracks (122-n) of the two resistances are displaced in height relative to one another.
A biological photometric device comprising: a light irradiating unit for irradiating light having a predetermined wavelength and sympathizing with oxygenated hemoglobin and deoxygenated hemoglobin, to an object to be examined via irradiating optical fibers (311 to 314); a light detecting unit for detecting and amplifying the light passed through the object via detecting optical fibers (321 to 325); a signal processing unit for calculating hemoglobin time variation information of oxygenated hemoglobin, deoxygenated hemoglobin and total hemoglobin in the body of the object from the signals detected by the light detecting unit, which has noise detecting means for determining and detecting noise signals from the time variation information; and a display unit for displaying the noise signals determined and detected by the signal processing unit, characterized in that the noise detecting means is adapted to determine at least one of different types of noise by determining whether the noise signals include noise attributed to the existence of obstructions to the passing of light between the object and the end surface of the optical fibers, or noise attributed to damage of the light irradiating unit, and the display unit is adapted to display an indication for discriminating the type of noise in accordance with the determination result of the noise detecting means. a light irradiating unit for irradiating light having a predetermined wavelength and sympathizing with oxygenated hemoglobin and deoxygenated hemoglobin, to an object to be examined via irradiating optical fibers (311 to 314); a light detecting unit for detecting and amplifying the light passed through the object via detecting optical fibers (321 to 325); a signal processing unit for calculating hemoglobin time variation information of oxygenated hemoglobin, deoxygenated hemoglobin and total hemoglobin in the body of the object from the signals detected by the light detecting unit, which has noise detecting means for determining and detecting noise signals from the time variation information; and a display unit for displaying the noise signals determined and detected by the signal processing unit, characterized in that the noise detecting means is adapted to determine at least one of different types of noise by determining whether the noise signals include noise attributed to the existence of obstructions to the passing of light between the object and the end surface of the optical fibers, or noise attributed to damage of the light irradiating unit, and the display unit is adapted to display an indication for discriminating the type of noise in accordance with the determination result of the noise detecting means.
A method for connecting a first connector (50, 51, 53) with a second connector (60, 61, 63) within an automotive lamp, the method comprising: providing an automotive lighting module in the automotive lamp, the automotive lighting module comprising: a housing; and the first connector (50, 53); attaching a connecting device (59a-59c) to a supporting device for the connecting device (59a-59c), the connecting device (59a-59c) comprising the second connector (60, 63); attaching the supporting device to a lamp body of the automotive lamp; and moving in a first direction either the automotive lighting module towards the lamp body or the lamp body towards the automotive lighting module thereby connecting the first connector (50, 53) with the second connector (60, 63) in the first direction; the lamp body being adapted for attachment of the supporting device thereto and support movement of the supporting device along a first axis thereof while attached, the first axis of the supporting device being perpendicular to the first direction; characterized by: the supporting device being adapted to detachably attach to the connecting device (59a-59c). providing an automotive lighting module in the automotive lamp, the automotive lighting module comprising: a housing; and the first connector (50, 53); a housing; and the first connector (50, 53); attaching a connecting device (59a-59c) to a supporting device for the connecting device (59a-59c), the connecting device (59a-59c) comprising the second connector (60, 63); attaching the supporting device to a lamp body of the automotive lamp; and moving in a first direction either the automotive lighting module towards the lamp body or the lamp body towards the automotive lighting module thereby connecting the first connector (50, 53) with the second connector (60, 63) in the first direction; the lamp body being adapted for attachment of the supporting device thereto and support movement of the supporting device along a first axis thereof while attached, the first axis of the supporting device being perpendicular to the first direction; characterized by: the supporting device being adapted to detachably attach to the connecting device (59a-59c).
A method for simultaneously monitoring or measuring, during operation, a sensory function and anaesthesia depth of a subject, said method comprising: generating a sequence of identical sound stimuli and transmitting said sound stimuli to said subject; detecting a response signal of evoked neurons' response patterns related to each sound stimuli of said sequence; and performing an analysis of said sensory function and said anaesthesia depth based on said response signals of evoked neurons' response patterns detected when stimuli is applied to a sensory function compared to said response signals of evoked neurons' response patterns detected before and/or after stimuli was applied to said sensory function, wherein said response signals are used both for the analysis of the sensory function as well as the anaesthesia depth, and the sensory function is analyzed during operation to ensure that the sensory system is functioning. generating a sequence of identical sound stimuli and transmitting said sound stimuli to said subject; detecting a response signal of evoked neurons' response patterns related to each sound stimuli of said sequence; and performing an analysis of said sensory function and said anaesthesia depth based on said response signals of evoked neurons' response patterns detected when stimuli is applied to a sensory function compared to said response signals of evoked neurons' response patterns detected before and/or after stimuli was applied to said sensory function, wherein said response signals are used both for the analysis of the sensory function as well as the anaesthesia depth, and the sensory function is analyzed during operation to ensure that the sensory system is functioning.
An optical package, comprising: a package substrate, wherein the package substrate comprises a recessed edge; a compute die on the package substrate; an optics die on the package substrate and overhanging the recessed edge of the package substrate; an integrated heat spreader, IHS (115,315,415), over the compute die and the optics die; and a lid (323,423) covering the recess in the package substrate, wherein the lid comprises a plate (324,424) and posts (327,427) extending towards the IHS between ferrules which are provided on the IHS, wherein the lid, the package substrate, and the IHS define a cavity in the optical package, and wherein the cavity is filled with a sealant. a package substrate, wherein the package substrate comprises a recessed edge; a compute die on the package substrate; an optics die on the package substrate and overhanging the recessed edge of the package substrate; an integrated heat spreader, IHS (115,315,415), over the compute die and the optics die; and a lid (323,423) covering the recess in the package substrate, wherein the lid comprises a plate (324,424) and posts (327,427) extending towards the IHS between ferrules which are provided on the IHS, wherein the lid, the package substrate, and the IHS define a cavity in the optical package, and wherein the cavity is filled with a sealant.
A terminal structure comprising a positive-electrode-side contact terminal and a negative-electrode-side contact terminal mountable in an apparatus to be loaded with a cylindrical secondary battery, the cylindrical secondary battery including a cylindrical body part whose surface is insulated with an insulating layer, a positive electrode terminal protruding from one end of the body part and a negative electrode terminal located and exposed at other end of the body part, the positive-electrode-side contact terminal and the negative-electrode-side contact terminal being brought into contact with the positive electrode terminal and the negative electrode terminal, respectively, of the cylindrical secondary battery, characterized in that the terminal structure is configured to satisfy relationships of D 1 < T 1 < D 2 and T 1 < T 2 = D 2 where D1 is a length of the body part, D2 is a total length of the cylindrical secondary battery corresponding to a length from a tip of the positive electrode terminal to the negative electrode terminal, T1 is an inter-contact-terminal distance when the cylindrical secondary battery is not present between the positive-electrode-side contact terminal and the negative-electrode-side contact terminal, the positive- and negative-electrode-side contact terminals (52, 54) and the inter-contact-terminal distance T1 are configured such that the positive- or the negative-electrode-side contact terminal (52, 54) does not contact an edge portion (70, 72) of the body part of the cylindrical secondary battery when inserting or removing the cylindrical secondary battery between the positive- and negative-electrode-side contact terminals (52, 54), and T2 is the inter-contact-terminal distance when the cylindrical secondary battery is held between the positive-electrode-side contact terminal and the negative-electrode-side contact terminal.
Seating device for a production line, in particular in automotive engineering, comprising a crossmember, which extends perpendicular to the vertical and in particular horizontally and at the free end of which a seat for a person is located, wherein a first swivel joint with a first swivel axis extending at least approximately in the direction of the vertical is located in the crossmember away from the seta, which swivel joint divides the crossmember into a first member section and a second member section, characterised in that the first swivel joint is provided with an elastically yielding swivel drive, which can be overcome by muscle power.
A vehicle for transporting goods, such as a trailer, a semi-trailer or a rigid, said vehicle comprising a cargo body having a roof (8, 12) being deformable, wherein the deformable roof can be placed: - in a neutral position, where said deformable roof forms substantially a flat surface parallel to a floor of the cargo body, - or in at least one aerodynamic position, characterized in that, in the aerodynamic position, at least a rear portion of the deformable roof is lowered with respect to the neutral position, and a front portion and/or a middle of the deformable roof (8, 12) is raised with respect to the neutral position. - in a neutral position, where said deformable roof forms substantially a flat surface parallel to a floor of the cargo body, - or in at least one aerodynamic position,
An intrusive medical device (40, 140, 200) comprising: a proximal end and a distal end spaced apart from the proximal end; a tubular member defining a lumen therein, the tubular member extending from the proximal end to the distal end; a camera positioned at the distal end; and a bundle of at least four unpaired conductors, the bundle extending from the proximal end to the distal end and electrically connected to the camera at the distal end, wherein the bundle is twisted at a pitch of 15 mm +/- 10 mm. a proximal end and a distal end spaced apart from the proximal end; a tubular member defining a lumen therein, the tubular member extending from the proximal end to the distal end; a camera positioned at the distal end; and a bundle of at least four unpaired conductors, the bundle extending from the proximal end to the distal end and electrically connected to the camera at the distal end, wherein the bundle is twisted at a pitch of 15 mm +/- 10 mm.
A method for producing a perforated plate, wherein the produced perforated plate has at least one hole, said method having the following steps - making two spaced-apart bores (107, 109) in a plate, wherein the bores are formed continuously through a thickness of the plate, - making a continuous cut between the two spaced-apart bores in the plate, and - bending up a plate portion adjacent to the continuous cut, in such a way that a hole is formed, characterised in that the bores (107, 109) are formed at an angle in a range of from 30° to 60° to a horizontal alignment of the plate. - making two spaced-apart bores (107, 109) in a plate, wherein the bores are formed continuously through a thickness of the plate, - making a continuous cut between the two spaced-apart bores in the plate, and - bending up a plate portion adjacent to the continuous cut, in such a way that a hole is formed,
A Session Initiation Protocol - SIP - Proxy Server designed to interface with one or more Digital Mobile Radio - DMR - Networks matching Private/Professional Mobile Radio - PMR - features via one or more DMR Gateways; wherein the SIP Proxy Server is designed to: - manage DMR signalling/data/voice individual and group features; - manage DMR signalling features, including voice call set-up, and DMR data features using the SIP MESSAGE method; and - manage DMR voice features using the SIP INVITE method; and wherein the SIP Proxy Server is further designed to: - recognize if a DMR signalling/data/voice feature is an individual or a group feature, □ if a DMR data/signalling group feature is recognized, send one MESSAGE message to each DMR Gateway to be involved, □ if a DMR voice group feature is recognized, implement a conference server that generates more SIP sessions using the SIP INVITE method, one session for each DMR Gateway to be involved; □ if a DMR data/signalling/call set-up individual feature is recognized, send a MESSAGE message to a DMR Gateway to be involved, and □ if a DMR voice individual feature is recognized, generate a SIP session to a DMR Gateway to be involved using the SIP INVITE method. - manage DMR signalling/data/voice individual and group features; - manage DMR signalling features, including voice call set-up, and DMR data features using the SIP MESSAGE method; and - manage DMR voice features using the SIP INVITE method; - recognize if a DMR signalling/data/voice feature is an individual or a group feature, □ if a DMR data/signalling group feature is recognized, send one MESSAGE message to each DMR Gateway to be involved, □ if a DMR voice group feature is recognized, implement a conference server that generates more SIP sessions using the SIP INVITE method, one session for each DMR Gateway to be involved; □ if a DMR data/signalling/call set-up individual feature is recognized, send a MESSAGE message to a DMR Gateway to be involved, and □ if a DMR voice individual feature is recognized, generate a SIP session to a DMR Gateway to be involved using the SIP INVITE method. □ if a DMR data/signalling group feature is recognized, send one MESSAGE message to each DMR Gateway to be involved, □ if a DMR voice group feature is recognized, implement a conference server that generates more SIP sessions using the SIP INVITE method, one session for each DMR Gateway to be involved; □ if a DMR data/signalling/call set-up individual feature is recognized, send a MESSAGE message to a DMR Gateway to be involved, and □ if a DMR voice individual feature is recognized, generate a SIP session to a DMR Gateway to be involved using the SIP INVITE method.
A process comprising: melt-mixing an amorphous resin, a crystalline resin, an optional wax, and a colorant to form a toner; pelletizing the toner; continuously annealing the pelletized toner by heating the toner to a temperature of from 50°C to 90°C for a period of time from 2 minutes to 60 minutes, said temperature being above the glass transition temperature of the toner, wherein continuously annealing the toner occurs in an apparatus comprising a rotary kiln; processing the annealed toner to form toner particles; and recovering the resulting toner particles. melt-mixing an amorphous resin, a crystalline resin, an optional wax, and a colorant to form a toner; pelletizing the toner; continuously annealing the pelletized toner by heating the toner to a temperature of from 50°C to 90°C for a period of time from 2 minutes to 60 minutes, said temperature being above the glass transition temperature of the toner, wherein continuously annealing the toner occurs in an apparatus comprising a rotary kiln; processing the annealed toner to form toner particles; and recovering the resulting toner particles.
A resource allocation method, comprising: sending, by a network device, first information to user equipment, wherein the first information is used to indicate uplink resources corresponding to autonomous uplink transmission performed by the user equipment, wherein the uplink resources corresponding to autonomous uplink transmission performed by the user equipment are uplink resources that the network device plans to allocate for the autonomous uplink transmission; wherein the first information comprises pattern information of a first bitmap of bits that indicate the uplink resources planned to allocate for autonomous uplink transmission, and wherein each bit corresponds to an uplink resource of the uplink resources and is set when the resource is planned to be allocated; the method further comprising: sending, by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size. sending, by a network device, first information to user equipment, wherein the first information is used to indicate uplink resources corresponding to autonomous uplink transmission performed by the user equipment, wherein the uplink resources corresponding to autonomous uplink transmission performed by the user equipment are uplink resources that the network device plans to allocate for the autonomous uplink transmission; wherein the first information comprises pattern information of a first bitmap of bits that indicate the uplink resources planned to allocate for autonomous uplink transmission, and wherein each bit corresponds to an uplink resource of the uplink resources and is set when the resource is planned to be allocated; the method further comprising: sending, by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size. sending, by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size.