mhurhangee/patent-ind-claim-en huggingface dataset:
A computing device for secure Input/Output I/O, the computing device comprising: an I/O controller to generate a direct memory access (DMA) transaction, wherein the DMA transaction includes a channel identifier that is indicative of the I/O controller and that is indicative of an I/O device coupled to the I/O controller , characterised in that the computing device further comprises: an interception module to (i) intercept the DMA transaction from the I/O controller and (ii) determine whether to protect the DMA transaction as a function of the channel identifier; and a protection module to perform a cryptographic operation using an encryption key associated with the channel identifier in response to a determination to protect the DMA transaction. an I/O controller to generate a direct memory access (DMA) transaction, wherein the DMA transaction includes a channel identifier that is indicative of the I/O controller and that is indicative of an I/O device coupled to the I/O controller , characterised in that the computing device further comprises: an interception module to (i) intercept the DMA transaction from the I/O controller and (ii) determine whether to protect the DMA transaction as a function of the channel identifier; and a protection module to perform a cryptographic operation using an encryption key associated with the channel identifier in response to a determination to protect the DMA transaction. an interception module to (i) intercept the DMA transaction from the I/O controller and (ii) determine whether to protect the DMA transaction as a function of the channel identifier; and a protection module to perform a cryptographic operation using an encryption key associated with the channel identifier in response to a determination to protect the DMA transaction.
A non-antibody polypeptide binding specifically to Taq DNA polymerase, the polypeptide being represented by the amino acid sequence of SEQ ID NO: 3 to 13.
A temperature measurement system, comprising: - a temperature measurement object ; - an optical fiber provided on the temperature measurement object ; - an intermediate material which is provided on the optical fiber and - a pressing jig which is provided on the temperature measurement object , and is configured to press the optical fiber against the temperature measurement object through intermediation of the intermediate material , - wherein the optical fiber is expandable and contractible in a longitudinal direction of the optical fiber due to a change in a temperature of the optical fiber with respect to the temperature measurement object and the intermediate material , characterized in that the intermediate material contains a paste-like substance infiltrated therein, wherein the paste-like substance has an NLGI consistency number of 00 or more and 5 or less. - a temperature measurement object ; - an optical fiber provided on the temperature measurement object ; - an intermediate material which is provided on the optical fiber and - a pressing jig which is provided on the temperature measurement object , and is configured to press the optical fiber against the temperature measurement object through intermediation of the intermediate material , - wherein the optical fiber is expandable and contractible in a longitudinal direction of the optical fiber due to a change in a temperature of the optical fiber with respect to the temperature measurement object and the intermediate material , characterized in that the intermediate material contains a paste-like substance infiltrated therein, wherein the paste-like substance has an NLGI consistency number of 00 or more and 5 or less.
A device for monitoring patency of a hose connector and for detecting leakages of fluid out of the hoses or connector, in the medical area, comprising a first sheet of a flexible material; a second sheet of a flexible material; an adhesive layer arranged at said first sheet or said second sheet or both in a pattern for forming a closed pocket when the first sheet and the second sheet are brought together; a removable protection sheet covering said adhesive layer ; said closed pocket having a first end and a second end constructed for receiving said hoses and an enlargement area there between constructed for receiving said connector; a detector device arranged for detecting leakage of said fluid into the closed pocket; a tear-off strip , defined by first and second weakening lines arranged in parallel with a mutual distance across said first or second sheet , whereby said weakening lines extend from said first end to said second end of said closed pocket; whereby the first sheet is attached to the second sheet via said adhesive layer to form said closed pocket for enclosing said hoses and connector to be monitored so that the adhesive sticks to the hose and connector to a small extent; and whereby when the device should be removed, the tear-off strip is ripped off, which effectively opens the closed pocket, so that the connector and hoses may be removed from the closed pocket. a first sheet of a flexible material; a second sheet of a flexible material; an adhesive layer arranged at said first sheet or said second sheet or both in a pattern for forming a closed pocket when the first sheet and the second sheet are brought together; a removable protection sheet covering said adhesive layer ; said closed pocket having a first end and a second end constructed for receiving said hoses and an enlargement area there between constructed for receiving said connector; a detector device arranged for detecting leakage of said fluid into the closed pocket; a tear-off strip , defined by first and second weakening lines arranged in parallel with a mutual distance across said first or second sheet , whereby said weakening lines extend from said first end to said second end of said closed pocket; whereby the first sheet is attached to the second sheet via said adhesive layer to form said closed pocket for enclosing said hoses and connector to be monitored so that the adhesive sticks to the hose and connector to a small extent; and whereby when the device should be removed, the tear-off strip is ripped off, which effectively opens the closed pocket, so that the connector and hoses may be removed from the closed pocket.
A method of producing a sodium ion conducting element for use in electrochemical cells, in particular as a solid electrolyte/separator in high-temperature batteries, wherein a coating formed with the system Na 2 O-SiO 2 -R 2 O 5 -R1 2 O 3 , where R1=Sc, Y, La and/or B and R2=P, Sb, Bi, Sn, Te, Zn and/or Ge, is formed on a surface of a porous substrate, characterized in that a powder formed with SiO 2 with a proportion of 47 mol% to 63 mol%, Na 2 O with a proportion of 33 mol% to 43 mol%, R1 2 O 3 with a proportion of 3 mol% to 14 mol% and R2 2 O 5 with a proportion of 0.1 mol% to 10 mol% is applied in the form of a paste or suspension containing this powder to a surface of the porous substrate, which is applied as a layer, and then sintering is carried out at a temperature of at most 1100°C to form a coating on the surface of the substrate, where R1 is scandium, yttrium, lanthanum and/or boron and R2 is phosphorus, antimony, bismuth, tin, tellurium, zinc and/or germanium.
A polishing method for polishing a hard and brittle material with a polishing composition, wherein the polishing composition contains at least aluminum oxide abrasive grains and water, wherein the polishing composition has a pH of 8.5 or higher, wherein the aluminum oxide abrasive grains have a specific surface area of 20 m 2 /g or less, which is determined by means of a nitrogen BET adsorption method, and wherein the hard and brittle material has a Vickers hardness of 1,500 Hv or higher and is sapphire, silicon carbide, or gallium nitride.
Unit for producing an assembly (A) of filamentary elements wound together in a helix, characterized in that it comprises: - means of twisting at least first and second filamentary elements , arranged in such a way as to twist the first and second filamentary elements separately from one another in such a way that each filamentary element is plastically deformed, - means of preforming at least the first and second twisted filamentary elements into a helix, arranged downstream of the twisting means and so as to preform the twisted first and second filamentary elements separately from one another, - means of assembling at least the first and second twisted and preformed filamentary elements , arranged downstream of the preforming means and in such a way as to form the assembly (A) of filamentary elements ; in which the assembly (A) of filamentary elements comprises a single layer formed by the filamentary elements of the assembly (A). - means of twisting at least first and second filamentary elements , arranged in such a way as to twist the first and second filamentary elements separately from one another in such a way that each filamentary element is plastically deformed, - means of preforming at least the first and second twisted filamentary elements into a helix, arranged downstream of the twisting means and so as to preform the twisted first and second filamentary elements separately from one another, - means of assembling at least the first and second twisted and preformed filamentary elements , arranged downstream of the preforming means and in such a way as to form the assembly (A) of filamentary elements ; in which the assembly (A) of filamentary elements comprises a single layer formed by the filamentary elements of the assembly (A).
A method of shaping a multi-layer hose composed of an outer layer of vulcanized rubber or gum, and an inner layer of a thermoformable material, and optionally composed of at least one intermediate layer between the outer layer and the inner layer , during which the hose is internally heated, then inserted into a mould (F) in which it is cooled and after that it is removed from the mould and the hose , by its natural deformation, changes its spatial arrangement determined by the mould (F) into the final desired spatial arrangement, wherein the hose is a straight and is shortened to required length, then cavity of hose is connected to a source of a heating medium and the hose is then internally heated by the passage of the heating medium through the empty cavity of the hose , the heating is performed to the lowest softening temperature selected from the softening temperatures for the bending of the inner layer and the optional intermediate layer , subsequently the cavity of the hose is disconnected from the source of a heating medium and the hose is inserted into a individual rigid shaping mould (F), in the rigid shaping mould (F) the hose is brought into a spatial arrangement with radii (r F ) of the individual bends of the hose determined by the rigid shaping mould (F) and with the angles (α F ) of the individual bends of the hose determined by the rigid shaping mould (F), whereupon the hose is tempered by placing the rigid shaping mould (F) with the inserted hose in a tempering chamber for a suitable time and then the hose , still inserted in the rigid shaping mould (F), is cooled and subsequently the hose is removed from the rigid shaping mould (F), whereby after removal from the rigid shaping mould (F), the hose due to the action of the outer layer and the inner layer and also the optional intermediate layers changes its spatial arrangement in such a manner that the radii (r F ) of the individual bends of the hose being determined by the mould (F) increase to the final desired radii (r v ) of the individual bends of the hose , wherein the angles (α F ) of the individual bends of the hose being determined by the mould (F) decrease to the final desired angles (α V ) of the individual bends of the hose .
A tunable combiner system , comprising: a combiner having first , second , and third ports, the combiner configured to combine a first radio frequency, RF, signal received at the first port and a second RF signal received at the second port into a combined RF signal at the third port, wherein each of the first and second RF signals contains an audio signal modulated at a first frequency and a second frequency, respectively; a tunable capacitance network coupled to the third port of the combiner ; and a band pass filter having an input coupled to the tunable capacitance network and an output for coupling to a transmitting antenna . a combiner having first , second , and third ports, the combiner configured to combine a first radio frequency, RF, signal received at the first port and a second RF signal received at the second port into a combined RF signal at the third port, wherein each of the first and second RF signals contains an audio signal modulated at a first frequency and a second frequency, respectively; a tunable capacitance network coupled to the third port of the combiner ; and a band pass filter having an input coupled to the tunable capacitance network and an output for coupling to a transmitting antenna .
A method for controlling a railway vehicle including an internal combustion engine for propelling the railway vehicle , a starter suitable for starting the internal combustion engine , a battery suitable for providing electrical power to the starter, and means for braking the wheels of the railway vehicle , wherein the braking means can be operated to a released state, an applied state or in any intermediate state between the applied state and the released state, the method including, when the internal combustion engine is started, steps of: - acquiring the state of the braking means , and of - operating an automatic stop of the internal combustion engine if at least one stop condition is fulfilled for a determined duration before stop (ΔT1), said at least one stop condition being that the brake means are operated to the applied state, characterized in that said duration before stop (ΔT1) is determined as a function of the duration required to charge the battery after the latter has been discharged to restart the internal combustion engine . - acquiring the state of the braking means , and of - operating an automatic stop of the internal combustion engine if at least one stop condition is fulfilled for a determined duration before stop (ΔT1), said at least one stop condition being that the brake means are operated to the applied state,
Apparatus for a terminal device, the apparatus comprising CSG determining means adapted to determine (S10) one of plural CSG types to which the apparatus belongs, based on a CSG entry stored by the apparatus, wherein the plural CSG types are related to a closed subscriber group advertisement received from a cell of a base station, wherein each of the plural CSG types indicates at least whether or not the apparatus is a member of a CSG, characterized in that the apparatus further comprises: selecting means adapted to select (S20) one of plural EAB parameter sets based on the determined one of the plural CSG types, wherein the plural EAB parameter sets are received from the cell and wherein each of the plural EAB parameter sets is related to one of the plural CSG types; applying means adapted to apply (S30) extended access barring to an access of the apparatus to the cell based on the selected EAB parameter set. selecting means adapted to select (S20) one of plural EAB parameter sets based on the determined one of the plural CSG types, wherein the plural EAB parameter sets are received from the cell and wherein each of the plural EAB parameter sets is related to one of the plural CSG types; applying means adapted to apply (S30) extended access barring to an access of the apparatus to the cell based on the selected EAB parameter set.
A method for wireless communication at a user equipment, UE, comprising: receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams , wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a random access subframe, each symbol associated with a different beam direction; identifying a nature of beam correspondence between one or more receive beams at the UE and one or more transmit beams at the UE , wherein the nature of beam correspondence is identified by determining whether there is full correspondence, partial correspondence, or no correspondence; identifying (215; 1610; 1710) a selected DL beam from the plurality of DL beams for communications from the base station to the UE ; and transmitting (225; 1615; 1715), for a number of symbols of a corresponding random access subframe, wherein each symbol of the corresponding random access subframe is associated with a corresponding beam direction of the base station, a random access channel, RACH, message to the base station using at least one of a frequency resource or a RACH waveform selected based at least in part on the symbol of the subframe of the DL signal of the selected DL beam, wherein the number of symbols of the corresponding random access subframe is determined based on whether there is full correspondence, partial correspondence, or no correspondence. receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams , wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a random access subframe, each symbol associated with a different beam direction; identifying a nature of beam correspondence between one or more receive beams at the UE and one or more transmit beams at the UE , wherein the nature of beam correspondence is identified by determining whether there is full correspondence, partial correspondence, or no correspondence; identifying (215; 1610; 1710) a selected DL beam from the plurality of DL beams for communications from the base station to the UE ; and transmitting (225; 1615; 1715), for a number of symbols of a corresponding random access subframe, wherein each symbol of the corresponding random access subframe is associated with a corresponding beam direction of the base station, a random access channel, RACH, message to the base station using at least one of a frequency resource or a RACH waveform selected based at least in part on the symbol of the subframe of the DL signal of the selected DL beam, wherein the number of symbols of the corresponding random access subframe is determined based on whether there is full correspondence, partial correspondence, or no correspondence.
A use of a mounting kit, said mounting kit consisting of an element to be mounted in a building wall and an auxiliary mounting device for mounting the element in the building wall, said auxiliary mounting device comprising plate elements , in which use the auxiliary mounting device is mounted in the building wall, wherein the plate elements of the auxiliary mounting device in the mounted state in a plane parallel to the wall define an outer contour of the area required by the element to be mounted according to horizontal and vertical boundary lines, have in the mounted state at least the depth of the element to be mounted in a depth direction perpendicular to the plane parallel to the wall, and outline the installation space required for the element , wherein the building wall is clad with horizontally and vertically delimited wall cladding panels and the plate elements protrude so far forward, at least in sections, in the depth direction that the wall cladding panels in the plane parallel to the wall can be abutted from the outside onto the protruding plate elements , wherein the area required for the subsequent mounting of the element to be mounted of the mounting kit remains free.
A method for use by a first terminal station in a wireless local area network, WLAN, including a plurality of access points, APs, to communicate with a second terminal station in the WLAN, the method comprising: while being associated with a first AP of the WLAN having a first basic service set identity, BSSID, receiving an indication of a second BSSID of a second AP associated with the second terminal station in the WLAN; in response to determining the second BSSID being distinct from the first BSSID , verifying (315-317, 1020) that the second AP is within range of the first terminal station; disassociating from the first AP; reassociating with the second AP so that the first and second terminal stations are both associated with the second AP to be used as common AP; and communicating with the second terminal station via infrastructure mode of the WLAN through the common AP. while being associated with a first AP of the WLAN having a first basic service set identity, BSSID, receiving an indication of a second BSSID of a second AP associated with the second terminal station in the WLAN; in response to determining the second BSSID being distinct from the first BSSID , verifying (315-317, 1020) that the second AP is within range of the first terminal station; disassociating from the first AP; reassociating with the second AP so that the first and second terminal stations are both associated with the second AP to be used as common AP; and communicating with the second terminal station via infrastructure mode of the WLAN through the common AP.
An automated seed sampling assembly comprising at least one sampling module , the at least one sampling module including: - a moveable seed grip assembly , - multiple sampling locations each associated with a sampler , - blow off jets and at least one collection port at each of the sampling locations for use in cleaning the sampling locations to remove residual seed tissue therefrom, wherein the seed grip assembly includes a first pair of arms configured to hold a first seed therebetween, and a second pair of arms configured to hold a second seed therebetween; wherein the samplers are configured to remove tissue samples from the seed being held at the particular one of the sampling locations , wherein the blow off jets are configured to clean one of the sampling locations by forcing any remnant seed tissue from the sampling module to the associated collection ports of the sampling modules , wherein the at least one sampling module is configured to control the moveable seed grip assembly to move the first seed toward the sampler associated with one of the sampling locations to thereby facilitate removal of a tissue sample from the first seed while another one of the sampling locations is cleaned with a blow off jet , and subsequently to move the second seed toward the sampler associated with the another one of the sampling locations to thereby facilitate removal of a tissue sample from the second seed while the one of the sampling locations is cleaned with a blow off jet . - a moveable seed grip assembly , - multiple sampling locations each associated with a sampler , - blow off jets and at least one collection port at each of the sampling locations for use in cleaning the sampling locations to remove residual seed tissue therefrom, wherein the seed grip assembly includes a first pair of arms configured to hold a first seed therebetween, and a second pair of arms configured to hold a second seed therebetween; wherein the samplers are configured to remove tissue samples from the seed being held at the particular one of the sampling locations , wherein the blow off jets are configured to clean one of the sampling locations by forcing any remnant seed tissue from the sampling module to the associated collection ports of the sampling modules , wherein the at least one sampling module is configured to control the moveable seed grip assembly to move the first seed toward the sampler associated with one of the sampling locations to thereby facilitate removal of a tissue sample from the first seed while another one of the sampling locations is cleaned with a blow off jet , and subsequently to move the second seed toward the sampler associated with the another one of the sampling locations to thereby facilitate removal of a tissue sample from the second seed while the one of the sampling locations is cleaned with a blow off jet .