mhurhangee/ep-ind-claims huggingface dataset:
A device comprising a device housing configured to be worn by a user, at a location which is not at the head of the user, the device housing comprising: a fastening member configured to releasably attach the housing to clothing of the user or a neck-string allowing the housing to be carried around the neck of a user without the housing being attached to any clothing, a first antenna configured to emit and/or receive electromagnetic energy, the first antenna having a first operational frequency, wherein the first antenna is configured to operate in the frequency range of 2 to 6 GHz, such as around 2.4 GHz, such as around 5 GHz, a wireless interface configured to communicate with one or more external hearing aid devices via the first antenna, a first element configured as a ground plane for the first antenna, a coil configured to receive a signal in a second operational frequency range, the second operational frequency range being lower than the first operational frequency, a second element (14, 20, 22) configured as a ground plane for the coil, wherein a decoupling element is arranged between the first element and the second element, the decoupling element configured to attenuate frequencies in an electrical signal at a third frequency. a fastening member configured to releasably attach the housing to clothing of the user or a neck-string allowing the housing to be carried around the neck of a user without the housing being attached to any clothing, a first antenna configured to emit and/or receive electromagnetic energy, the first antenna having a first operational frequency, wherein the first antenna is configured to operate in the frequency range of 2 to 6 GHz, such as around 2.4 GHz, such as around 5 GHz, a wireless interface configured to communicate with one or more external hearing aid devices via the first antenna, a first element configured as a ground plane for the first antenna, a coil configured to receive a signal in a second operational frequency range, the second operational frequency range being lower than the first operational frequency, a second element (14, 20, 22) configured as a ground plane for the coil, wherein a decoupling element is arranged between the first element and the second element, the decoupling element configured to attenuate frequencies in an electrical signal at a third frequency.
An implant for use in a total ankle replacement system, the implant (14; 102; 202; 302; 402) comprising a body (104; 204; 304; 404) comprising an articulation surface (106; 206; 306; 406) and an opposed bone contact surface (208; 308; 408) and at least one tissue groove defined by the body, the at least one tissue groove being sized and configured to receive soft tissue therein and position the soft tissue in an anatomically desirable position when the implant is coupled to a bone, characterized in that the body (104; 204; 304; 404) further defines one or more anchor holes (110a, 110b; 210a, 210b; 310a, 310b) which are configured to receive soft tissue therethrough.
A dough dividing system comprising: a hopper for receiving dough, the hopper including a hopper inlet and a hopper outlet; and a divider assembly including: a divider block having a divider block cavity; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet, and a second position in the divider block cavity is positioned over a receptacle inlet, wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate, wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position. a hopper for receiving dough, the hopper including a hopper inlet and a hopper outlet; and a divider assembly including: a divider block having a divider block cavity; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet, and a second position in the divider block cavity is positioned over a receptacle inlet, wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate, wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position. a divider block having a divider block cavity; and a first actuator operable to move the divider block between a first position in which the divider block cavity is positioned under the hopper outlet, and a second position in the divider block cavity is positioned over a receptacle inlet, wherein dough enters the divider block cavity when the divider block cavity is in the first position and the dough is sheared as the divider block moves to the second position, characterized in that the divider block further has a divider bottom plate, wherein a weep hole is formed as a through-hole in the divider bottom plate for venting the divider block cavity to the atmosphere when the divider block is in the first position.
Cargo drive unit for a cargo space in particular for the cargo space of an aircraft, wherein the cargo drive unit comprises: at least one driven force-transmission element which is designed to transmit drive forces to a load which is arranged in the cargo space in order to move the load within the cargo space along at least one predetermined movement axis; a sensor unit which is designed to be travelled over omnidirectionally by the load and to sense at least one movement parameter of the load bidirectionally along the movement axis; and a control unit which is designed to control the force-transmission element in accordance with the recorded movement parameter. at least one driven force-transmission element which is designed to transmit drive forces to a load which is arranged in the cargo space in order to move the load within the cargo space along at least one predetermined movement axis; a sensor unit which is designed to be travelled over omnidirectionally by the load and to sense at least one movement parameter of the load bidirectionally along the movement axis; and a control unit which is designed to control the force-transmission element in accordance with the recorded movement parameter.
A combination of a food transport container having a container body and a temperature-conditioning device for the food transport container, for the purpose of the conditioning of air located in a container interior of the container body of the food transport container with regard to its temperature, wherein the container body of the food transport container includes a receptacle for the temperature-conditioning device, wherein the receptacle takes the form of a recess in a wall of the container body, wherein, in a closed condition of the food transport container, the temperature-conditioning device is introducible, from an outer side of the container body, into the receptacle in the wall of the container body of the food transport container and is removable therefrom, wherein the temperature-conditioning device includes an operating module that is arranged on a front side of the temperature-conditioning device, and wherein the temperature-conditioning device includes a terminal for an energy supply line, arranged on a rear side of the temperature-conditioning device that is remote from the front side of the temperature-conditioning device, wherein, in an assembled condition of the temperature-conditioning device, between an interior of the temperature-conditioning device and the container interior of the container body of the food transport container a fluid connection is configured to be made, through which a fluid can pass out of the temperature-conditioning device and into the container interior, characterised in that in the assembled condition of the temperature-conditioning device, a side of the temperature-conditioning device remote from the container interior of the food transport container is substantially flush with an outer side of the container body of the food transport container and in that there is provided a door for closing the food transport container that includes an air duct.
Process for the preparation of bis-DMTD, which comprises at least the following stages: a) reaction of hydrazine N 2 H 4 with carbon disulfide CS 2 in a basic medium; b) acidification of the reaction medium; c) oxidation of the reaction medium; d) recovery and optional purification of the bis-DMTD formed. a) reaction of hydrazine N 2 H 4 with carbon disulfide CS 2 in a basic medium; b) acidification of the reaction medium; c) oxidation of the reaction medium; d) recovery and optional purification of the bis-DMTD formed.
An oral hygiene implement (2; 10) comprising: a neck section extending along a longitudinal direction and having a neck section housing surrounding a neck section cavity; a head section having a through hole therein extending through the head section along a through hole direction having an angle with respect to the longitudinal direction and having a head section housing surrounding the through hole; wherein the through hole defines a first and a second opening (22A, 22B) in the head section housing; and wherein a cap element separately made from the head section housing is connected with the head section housing to essentially cover the first opening and a carrier element separately made from the head section housing is arranged to essentially cover the second opening, characterized in that a circumferential gap extends between an edge of the first opening and an edge of the cap element. a neck section extending along a longitudinal direction and having a neck section housing surrounding a neck section cavity; a head section having a through hole therein extending through the head section along a through hole direction having an angle with respect to the longitudinal direction and having a head section housing surrounding the through hole; wherein the through hole defines a first and a second opening (22A, 22B) in the head section housing; and wherein a cap element separately made from the head section housing is connected with the head section housing to essentially cover the first opening and a carrier element separately made from the head section housing is arranged to essentially cover the second opening, characterized in that a circumferential gap extends between an edge of the first opening and an edge of the cap element.
Machine comprising a housing having - housing parts (2, 3) which rest against one another via a separating plane, and a - displacement body, wherein the housing and displacement body can be pivoted with respect to one another about a tilting axis and are also pivotable with respect to this axis, in order to delimit a first chamber with variable volume, wherein said displacement body comprises - a first displacement member which can be displaced in a fluid-tight manner along the inner wall of said housing (2, 3), - a second displacement member which is fixedly connected to the first displacement member and arranged at a distance from said first displacement member, wherein said housing comprises a partition wall, which is arranged between the displacement members (5, 6), wherein said first chamber is delimited between said first displacement member and a first side of said partition wall and a second chamber is delimited between said second displacement member and a second side of said partition wall, said second side being opposite said first side, wherein said displacement members (5, 6) and sides (24, 25) of said partition wall cooperate such that said displacement members can perform a rolling movement with line sealing with respect to said sides of said partition wall, wherein said first and second displacement members delimit a wall extending over 360° with said partition wall, and a radially extending sealing plate being arranged between said first and second displacement member, wherein each of said chambers (21, 22) in each case comprises an inlet and an outlet, said inlets and outlets respectively extending directly from said chambers into said housing and are connected directly to one another, characterized in that said separating plane is at right angles to said partition wall, said sealing plate is retained in a space left in either one or both of said housing parts (2, 3) at said separation plane, said partition wall is integral with a housing part (2, 3), and said partition wall comprises partition wall parts, the separation of which coincides with the separating plane. - housing parts (2, 3) which rest against one another via a separating plane, and a - displacement body, wherein the housing and displacement body can be pivoted with respect to one another about a tilting axis and are also pivotable with respect to this axis, in order to delimit a first chamber with variable volume, - a first displacement member which can be displaced in a fluid-tight manner along the inner wall of said housing (2, 3), - a second displacement member which is fixedly connected to the first displacement member and arranged at a distance from said first displacement member,
A method for transmitting data, the method comprising: modulating data to be transmitted into a plurality of modulated symbols; and transmitting the plurality of modulated symbols according to an output matrix via a plurality of antennas through a plurality of frequency subcarriers, wherein a first symbol and a second symbol are transmitted via a first antenna through a first frequency subcarrier and a second frequency subcarrier respectively, a third symbol and a fourth symbol are transmitted via a second antenna through a third frequency subcarrier and a fourth frequency subcarrier respectively, an inverse complex conjugate of the second symbol and a complex conjugate of the first symbol are transmitted via a third antenna through the first frequency subcarrier and the second frequency subcarrier respectively, and an inverse complex conjugate of the fourth symbol and a complex conjugate of the third symbol are transmitted via a fourth antenna through the third frequency subcarrier and the fourth frequency subcarrier respectively, and wherein density of resource elements used for reference signal transmission on the third antenna and the fourth antenna is lower than density of resource elements used for reference signal transmission on the first antenna and the second antenna, wherein the output matrix is characterized: S 1 S 2 0 0 0 0 S 3 S 4 − S 2 * S 1 * 0 0 0 0 − S 4 * S 3 * where S 1, S 2, S 3 and S 4 are the plurality of modulated symbols to be transmitted via the plurality of antennas. modulating data to be transmitted into a plurality of modulated symbols; and transmitting the plurality of modulated symbols according to an output matrix via a plurality of antennas through a plurality of frequency subcarriers, wherein a first symbol and a second symbol are transmitted via a first antenna through a first frequency subcarrier and a second frequency subcarrier respectively, a third symbol and a fourth symbol are transmitted via a second antenna through a third frequency subcarrier and a fourth frequency subcarrier respectively, an inverse complex conjugate of the second symbol and a complex conjugate of the first symbol are transmitted via a third antenna through the first frequency subcarrier and the second frequency subcarrier respectively, and an inverse complex conjugate of the fourth symbol and a complex conjugate of the third symbol are transmitted via a fourth antenna through the third frequency subcarrier and the fourth frequency subcarrier respectively, and wherein density of resource elements used for reference signal transmission on the third antenna and the fourth antenna is lower than density of resource elements used for reference signal transmission on the first antenna and the second antenna, wherein the output matrix is characterized: S 1 S 2 0 0 0 0 S 3 S 4 − S 2 * S 1 * 0 0 0 0 − S 4 * S 3 * where S 1, S 2, S 3 and S 4 are the plurality of modulated symbols to be transmitted via the plurality of antennas.
A method for wireless communication, comprising: selecting, within an apparatus, at least two modems from a set of modems for a wireless communication based on quality of service requirements provided by an application of the apparatus and energy consumption of the wireless communication; and utilizing (502, 508) the selected at least two modems concurrently for the wireless communication. selecting, within an apparatus, at least two modems from a set of modems for a wireless communication based on quality of service requirements provided by an application of the apparatus and energy consumption of the wireless communication; and utilizing (502, 508) the selected at least two modems concurrently for the wireless communication.
Solar installation having at least two adjacent solar panels (1, a, 1b, 1c, 1d, 1e, 1f) and fastening beams for fastening the solar installation to a substrate, wherein the fastening beams extend in a transverse direction and the panels (1, a, 1b, 1c, 1d, 1e, 1f) are mounted on the fastening beams along the latter, wherein a positioning strip is arranged between at least two adjacent solar panels (1, a, 1b, 1c, 1d, 1e, 1f), which positioning strip extends substantially along a longitudinal direction from one fastening beam to another fastening beam, wherein the positioning strip has an S-shape in cross-section and has a front tab for abutment against the front side of a first adjacent panel and a rear tab for abutment against the rear side of a second adjacent panel, characterised in that the rear tab has at least one retaining element (4, 15) for retaining the positioning strip on the second panel by engaging behind a part of the second panel.
A profile provisioning platform comprising: - a profile database storing data related to a profile for an UICC; - at least one profile provider interface allowing a profile provider to exchange data with the profile database; - at least one use case owner interface allowing a use case owner to exchange data with the profile database; - at least one UICC requester interface allowing a UICC requester to exchange data with the profile database, said exchange including at least to request profiles or/and receive profiles from the profile database, wherein - at one of the at least one UICC requester interfaces (USAPI), said exchange of data includes: --- to provide a UICC request to the database, or/and --- to provide metadata or other formal information on a UICC to the database, --- to provide an EIS of a UICC to the database; and - a business relation manager managing access of the different profile providers, use case owners and UICC requesters to data in the profile database based on access rules related to the data. - a profile database storing data related to a profile for an UICC; - at least one profile provider interface allowing a profile provider to exchange data with the profile database; - at least one use case owner interface allowing a use case owner to exchange data with the profile database; - at least one UICC requester interface allowing a UICC requester to exchange data with the profile database, said exchange including at least to request profiles or/and receive profiles from the profile database, wherein - at one of the at least one UICC requester interfaces (USAPI), said exchange of data includes: --- to provide a UICC request to the database, or/and --- to provide metadata or other formal information on a UICC to the database, --- to provide an EIS of a UICC to the database; and --- to provide a UICC request to the database, or/and --- to provide metadata or other formal information on a UICC to the database, --- to provide an EIS of a UICC to the database; and - a business relation manager managing access of the different profile providers, use case owners and UICC requesters to data in the profile database based on access rules related to the data.
A peptide synthesis method comprising the following steps a to d: a. condensing an amino acid having an N-terminal protected with fluorenylmethoxycarbonyl (N-Fmoc protected) or an N-Fmoc protected peptide with an amino acid having a C-terminal protected with a carrier, the carrier being capable to crystallize in response to a change of a composition of a dissolving solvent (C-carrier protected), a C-carrier protected peptide or a C-carrier protected amino acid amide, in the presence of a condensing agent, to obtain an N-Fmoc-C-carrier protected peptide, b. subsequently adding to the reaction system resulting from step (a) at least one amine selected from the group consisting of an alkylamine having 1 to 14 carbon atoms, an aromatic amine having 1 to 14 carbon atoms and hydroxyl amine, wherein the alkylamine or the aromatic amine is a primary or secondary amine, c. thereafter de-protecting the N-terminal, and d. changing the composition of the solvent dissolving the resultant C-carrier protected peptide, to crystallize and separate the C-carrier protected peptide. a. condensing an amino acid having an N-terminal protected with fluorenylmethoxycarbonyl (N-Fmoc protected) or an N-Fmoc protected peptide with an amino acid having a C-terminal protected with a carrier, the carrier being capable to crystallize in response to a change of a composition of a dissolving solvent (C-carrier protected), a C-carrier protected peptide or a C-carrier protected amino acid amide, in the presence of a condensing agent, to obtain an N-Fmoc-C-carrier protected peptide, b. subsequently adding to the reaction system resulting from step (a) at least one amine selected from the group consisting of an alkylamine having 1 to 14 carbon atoms, an aromatic amine having 1 to 14 carbon atoms and hydroxyl amine, wherein the alkylamine or the aromatic amine is a primary or secondary amine, c. thereafter de-protecting the N-terminal, and d. changing the composition of the solvent dissolving the resultant C-carrier protected peptide, to crystallize and separate the C-carrier protected peptide.
A method for utilizing advanced functionality of an RFID device, said advanced functionality being functionality other than providing an identification (614, 620), said RFID device being energetically passive, the method comprising: - receiving an advanced functionality code from said RFID device, said advanced functionality code indicating that said RFID device provides said advanced functionality, and said advanced functionality code enabling a reader to adjust its operation according to said advanced functionality, - requesting information from said RFID device, said information relating to said advanced functionality, and - based on said received advanced functionality code, utilizing said advanced functionality by using said requested information. - receiving an advanced functionality code from said RFID device, said advanced functionality code indicating that said RFID device provides said advanced functionality, and said advanced functionality code enabling a reader to adjust its operation according to said advanced functionality, - requesting information from said RFID device, said information relating to said advanced functionality, and - based on said received advanced functionality code, utilizing said advanced functionality by using said requested information.